Power Management Selection Guide 2015 01_00

Transcription

Power Management
Selection Guide 2015
www.infineon.com/solutionfinder
Mobile Catalogue
Dear Customer,
Our world is facing huge challenges
The world population is rising, energy demand is increasing rapidly and
we are seeing alarming climate changes. It is essential to preserve our
natural resources, choose renewable energy forms and put tremendous
efforts into optimizing energy efficiency. Our solutions maximize electricity
savings along the entire supply chain – from generation to distribution to
consumption – setting benchmarks for energy efficiency and power density.
Our passion is to understand your systems and offer the best solutions
By using our products and systems, you gain in innovation and costperformance in your applications – including Servers, Telecom Systems,
Computers, Game Consoles, Smart Phones, Cellular Infrastructure and
Lighting Solutions. Product families such as CoolMOS™ , OptiMOS™ or the
combination of power transistors and ICs in the most advanced packaging
technologies as well as digital power platforms enable a completely new level
of efficiency and compactness. We are proud that well-known customers trust
our competence and use our solutions for their competitive advantage.
Infineon is becoming even stronger and we are looking forward to unleashing
great potential in the power industry – our experts combine Infineon
semiconductors and control architecture in a unique way to make your
products more efficient, more cost effective and altogether more successful.
Please be invited to let our new Power Management Selection Guide 2015
inspire you to find the right energy efficient products and solutions for
your purpose!
尊敬的用户，
我们的世界正面临着巨大的挑战
世界人口正在增长，能源需求急剧增加，我们面临着惊人的气候变化。我们必须
保护我们的自然资源，选择可再生能源，并且在优化能源效率方面付出极大的努
力。我们的解决方案是最大限度地在整个从发电、输送到用电的供应链中节省电
力，以此为能源效率和功率密度设定行业标杆。
我们的动力是了解您的系统，并提供最好的解决方案。
通过使用我们的产品和系统，你获得了创新和性价比高的应用，包括服务器、电
信系统、电脑、游戏机、智能手机、蜂窝通信基础设施和照明解决方案。产品系
列如CoolMOS™ 或OptiMOS™ ，以最先进的封装技术结合的功率晶体管和专用
集成电路，以及数字电源平台，造就了全新水平的效率和紧凑。知名客户信任我
们的能力，使用我们的解决方案来提高其竞争优势，为此我们感到很自豪。英飞
凌日益强大，我们期待着释放在电力行业的巨大潜力－我们的专家将英飞凌半导
体和控制架构以一种独特的方式结合，使得您的产品更高效，更经济，更成功。
请让我们新版的2015电源管理选型指南带您找到符合您目标的正确的节能产品和
解决方案。
Andreas Urschitz
Division President of
Power Management & Multimarket
电源管理及多元化市场事业部总裁
Content
Power Management Applications
DC/DC Computing
Notebook
Server, Desktop and Graphic Cards
Point-of-Load
Uninterruptable Power Supply
SMPS
Charger
Adapter
PC Silverbox
TV Power
Server Power Supply
Telecom Power Supply
E-Mobility
Solar
Major Home Appliances
Induction Cooking
Inverterized Drives
Lighting
Industrial Welding
Battery Powered Applications
Light Electric Vehicles
Wireless Power
8
8
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10
11
12
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14
16
18
20
23
26
30
34
34
35
36
39
40
42
44
Segment Low Voltage – OptiMOS™
46
Segment High Voltage – CoolMOS™
70
Segment Silicon Carbide
88
Segment IGBT
98
Segment Silicon Power Diodes
114
Segment Power ICs
118
Segment Microcontrollers
164
Segment Sensors
168
Packages
174
Soloreiust cone pratende
We shape Power Management We live Energy Efficiency
www.infineon.com/power
5
.dp digital power™ 2.0
.dp digital power™ 2.0
Simplify Innovation
Power supply development migrates from analog to digital design, to achieve smaller form factors and higher
efficiency. Infineon is introducing .dp digital power™ 2.0 to simplify your innovations. The new digital IC family
is the first all-in-one package solution that integrates a digital power controller with key peripherals.
.dp digital power 2.0 will be introduced to the broader market by 2015.
Key Benefits of a digital switched mode Power Supply
Technical enhancement and cost saving go hand-in-hand
Firmware gives flexibility over fixed analog design
Cost saving and faster time to market increase competitiveness
Your advantage
More flexibility through digital approach
Simplify the management of product variation
Shorten development cycles down by 70%
Offer room for customer innovation and own IP
Advanced energy efficiency
Reduced system cost and BOM
The value added
For lighting market customers .dp helps to cope with the paradigm shift of LED requirements and to solve
actual lighting challenges. For Power Supply customers in the mid-performance sector .dp helps to comply
with energy efficiency criteria and provides a much better stand-by management.
www.infineon.com/digitalpower
6
Increase efficiency
Reduce costs
.dp power supplies achieve smaller form
factors and higher efficiency.
.dp cuts development cycles, OPEX
and BOM considerably!
Maximize flexibility
Boost performance
Adapters with .dp inside charge
mobile devices significantly faster.
LED drivers with .dp inside improve the
lifetime of valuable LED components.
7
Notebook
DC/DC Computing
Small and Cool System Power for Notebooks
Benchmark technologies significantly improve switching losses in power stages and drivers and thus improve battery
lifetime and system reliability. Highest efficiency at all load conditions enables system designers to overcome thermal
challenges to reach a new level of system miniaturization. Our latest portfolio of Notebook products is consequently
optimized along the requirements of the next generation Notebook platforms and easy to design-in.
AC Adapters
OptiMOS™
Battery
Charger
Chip Set, DDR, I/O,
other peripheral loads
DC/DC
PWM
Controller
OptiMOS™
CPU, GPU
OptiMOS™
8
Notebook
Topology
Voltage Class
Technology
Selection
DC/DC
Buck Converter
30V
OptiMOS™
Recommendation
Controller
Buck Converter
See page 137 for further information
Applications
Server
DC/DC Computing
Highest Power Density for Server, Desktop and Graphic Cards
Power management system solutions based on OptiMOS™ technology increase Energy Efficiency in all load conditions,
reduce required PCB real estate and are easy to use. Our benchmark solutions demonstrate greatly increased efficiency,
even at high currents and high switching frequencies. This supports system designers to achieve efficiency as well as
power and thermal requirements with a reduced number of phases and thus save overall system cost.
Gate Driver
OptiMOS™
Gate Driver
OptiMOS™
DC/DC
PWM
Controller
DC/DC
PWM
Controller
Chip Set, DDR, I/O,
other peripheral loads
SIP
CPU, GPU
Clamping, Level Shifters
and General Purpose
Gate Driver
Server, Desktop and Graphic Cards
Topology
Voltage Class
Technology
Selection
DC/DC
Buck Converter
25V
OptiMOS™
Recommendation
Buck Converter
30V
OptiMOS™
Reference
Gate Driver
Buck Converter
12V
PX3517
Recommendation
TDA21320
Recommendation
SIP
Buck Converter
16V
Controller
Buck Converter
See page 137 for further information
9
Point of Load
DC/DC Computing
Point of Load Power Management for Superior Performance
Our power architectures address the need for more accurate and efficient power delivery to support increasingly
challenging requirements of today’s microprocessors, memories, ASICs and FPGAs. The voltage regulators can be
optimized and configured while actively regulating; the final configuration is then permanently stored inside the
controller chip non-volatile memory eliminating the need for external configuration components. Combined with
DrBlade™ 2 (TDA21320) the voltage regulators can achieve > 95% efficiency depending on operating conditions.
Designs with output voltages of up to 5.0V are supported. Point of Load is used in Datacom, Computing and Telecom.
VIN (0.5V - 16V)
DC/DC
PWM
Controller
Driver
Inductor
VOUT (0.5V - 5V)
Output
Capacitance
GND
PX7x4xH
Family
10
DrBlade™ 2
All in one:
Driver + high side
+ low side MOSFET
Point of Load
Topology
Technology
Selection
Controller
Buck Converter
Highly parameterized fully digital controller
Recommendation
Power Stage
Buck Converter
DrBlade™ 2 – SiP (driver and FETs)
Recommendation
Applications
UPS
Uninterruptable Power Supply (UPS)
Attractive Solutions for Highest Efficiency and Power Density
Infineon offers a wide range of cost-effective products for Uninterruptable Power Supply (UPS), for all its stages. This
includes IGBTs, diodes and control ICs for AC/DC and DC/AC stages, as well as for the battery charge control circuitry
and switches for the auxiliary Power Supply.
The recently launched 650V TRENCHSTOP™ 5 IGBTs in combination with Rapid diodes support the trends towards
continuously increasing system efficiency, power density and reducing the cost of ownership for UPS users.
Control ICs
AC
VIN
VBULK
PFC
Charge
Controller
VOUT
Inverter
DC
VBAT
AUX
Stage
Topology
Voltage Class
Technology
Selection
PFC
Boost PFC
600V / 1200V
TRENCHSTOP™
Ease-of-use
Boost PFC
600V / 1200V
HighSpeed 3
Efficiency
Boost PFC
650V
TRENCHSTOP™ 5
Efficiency
Boost PFC
650V
Rapid Diode
Efficiency
NPC1
600V
TRENCHSTOP™
Ease-of-use
NPC1
600V
HighSpeed 3
Efficiency
NPC1
650V
TRENCHSTOP™ 5
Efficiency
NPC1
650V
Rapid Diode
Efficiency
NPC2
1200V
TRENCHSTOP™ 2
Ease-of-use
NPC2
1200V
HighSpeed 3
Efficiency
NPC2
650V
TRENCHSTOP™ 5
Efficiency
NPC2
650V
Rapid Diode
Efficiency
Charger controller
Half bridge
1200V
HighSpeed 3
Efficiency
Driver IC
-
1200V
EiceDriver™ Compact
Recommendation
AUX
-
650V-800V
CoolSET™
Recommendation
Inverter
11
Charger
SMPS
Charger
High power density and cost effective Power Supplies can be designed by operating the converter at a higher switching
frequency to avoid a considerable increase in transformer and output capacitor size. In realizing the required thermal
performance and EMI behavior, power devices with lower FOM (RDS(on)*Qg) and controlled switching behavior enable
effective and fast R&D development due to their lower losses and smoother waveforms. Semiconductor devices
in SMD packages enable optimal PCB layout through minimal footprint and are very well fit for automatized large
volume production.
The CoolMOS™ high voltage MOSFET and OptiMOS™ low voltage MOSFETs portfolios enable high power density designs
whilst keeping your thermal requirements under control.
High Voltage MOSFETs
An efficiency optimized solution can be achieved with CoolMOS™ C6/E6 families. Both families include a gate resistor which
gives a good balance in ease-of-use, efficiency and reduced EMI. For cost sensitive Consumer applications we recommend
CoolMOS™ CE family. This technology offers smoother waveforms, lesser dv/dt and RFI and an internal gate resistor for
ease-of-use. Nevertheless, our technology still achieves better efficiency and thermal behavior than standard MOSFETs.
Topology
Voltage Class
Technology
Benefit
Flyback
600V/650V
CoolMOS™ C6/E6
High efficiency due to lower Rg,int (E6)
Easy control of switching behavior
Flyback
600V/650V
CoolMOS™ CE
Best price competitive CoolMOS™ family
Lower switching losses vs. standard MOSFET
Controlled dv/dt and di/dt for better EMI
Low Voltage MOSFETs
The OptiMOS™ 60V, 80V and 100V families have the lowest RDS(on) when compared to other similar devices. This helps to
keep conduction losses to a minimum, benefiting the thermal management of the charger. The lower output charge of the
OptiMOS™ family reduces the overshoot in the Synchronous Rectification stage.
12
Topology
Voltage Class
Technology
Benefit
Flyback
60V - 100V
OptiMOS™ 5
Low conduction losses, reduced overshoot
Synchronous Rectification
60V - 100V
OptiMOS™ 5
Applications
Charger
Control ICs
Quasi-Resonant Flyback topology is known to have high efficiency and low EMI performance compared with the Fixed
Frequency Flyback topology as the system is switching at the valley point for each switching cycle. ICE2QS03G inherits the
QR topology and enhances performance through 7 valley switching points to reduce the switching frequency. Also, the
patented active burst mode feature enhances the light load standby power.
Topology
Voltage Class
Technology
Benefit
QR Flyback IC
500V
ICE2QS03G
High efficiency, low standby power
Discrete Solution Blockdiagram
FF/QR PWM
controller e.g.
ICE3XS03LJG
ICE3QS03G
Output
QR flyback
controllers
EMI Filter
600V CoolMOS™ C3/CP/C6/E6
800V CoolMOS™ C3 e.g.
IPA60R600CP
SPA06N80C3
OptiMOS™ 3 e.g.
BSZ100N06LS3
Quick
Charge
Controller
Main converter
Quasi-resonant or FF flyback
Synchronous Rectification Controller
13
Adapter
SMPS
Adapter
Manufacturing of slimmer and lighter Adapters requires ICs enabling high efficiency with good EMI performance and
low standby power and cost effective MOSFETs in small packages that feature good electromagnetic interference (EMI)
and excellent thermal performance.
Infineon offers a wide range of products for Adapters including high voltage MOSFETs and control ICs for PFC and PWM
stages, as well as low voltage MOSFETs for Synchronous Rectification. With these products, Infineon supports the trend
towards a significantly higher efficiency level, especially in partial load conditions, as well as miniaturization of the
Adapter. Especially versatile are the CoolMOS™ C6/E6 and P6 families which combine high efficiency with ease-of-use. For
Synchronous Rectification, Infineon’s OptiMOS™ series offers extremely low on-state resistance and low capacitances.
New control ICs support topologies such as Quasi-Resonant Flyback and LLC, which have become increasingly significant
within the Notebook Adapter segment. In order to offer a complete power electronics solution perfectly complementing
Infineon’s portfolio, the new hyperfast Rapid Silicon diode family has been introduced for the PFC stage.
Regional regulations and a general increased sensitivity toward the containment of electronic waste are pointing
towards the adoption of universal Adapters. The implementations methodologies and protocols are not yet
harmonized, however Infineon is already closely monitoring and partnering with the decision makers to timely insure
the offer of a competitive semiconductor solution. The capability to efficiently manage different power classes and
protocols will be key in this application and Infineon is getting ready for supporting Adapter makers in this challenge.
For efficiency driven and high power density applications, CoolMOS™ P6 family is the recommended solution due to
low switching losses even in high switching frequency operation. For standard Adapters, where ease of design and
good EMI behavior are the main priorities, CoolMOS™ CE offers higher internal gate resistance for softer voltage and
current transition.
Topology
Voltage Class
Technology
Benefit
DCM PFC
600V
CoolMOS™ P6
Flyback
600V
CoolMOS™ P6
Fast switching speed for improved efficiency and thermals
Reduced gate charge for enhanced light load efficiency
Optimized Vgs threshold for lower turn-off losses
HB LLC
600V
CoolMOS™ P6
DCM PFC
500V/600V
CoolMOS™ CE
Flyback
500V/600V
CoolMOS™ CE
HB LLC
500V/600V
CoolMOS™ CE
DCM/CCM PFC
650V
CoolMOS™ C6/E6
HB LLC
650V
CoolMOS™ C6/E6
Easy control of switching behavior due to higher Rg,int
Better transition losses vs. standard MOSFET
Easy control of switching behavior even in not
optimized layout
Better switching losses in comparison with its predecessor
Rugged body diode which prevents device failure during hard
commutation
Low Voltage MOSFETs
The OptiMOS™ 80V, 100V and 120V families have the lowest RDS(on) when compared to other similar devices. This
helps to keep conduction losses to a minimum, benefiting the thermal management. The lower output charge of the
OptiMOS™ family reduces the overshoot in the Synchronous Rectification stage.
14
Topology
Voltage Class
Technology
Benefit
Flyback
80V - 120V
OptiMOS™
Applications
Adapter
Boost Diodes
For DCM PFC topologies, a low forward voltage diode is recommended. Rapid 1 diodes have a low and temperaturestable forward voltage to simplify design effort.
Topology
Voltage Class
Technology
Benefit
DCM PFC
650V
Rapid 1
Low conduction losses
Control ICs
ICE2QS03G can achieve high efficiency and low standby power performance as it adopts the QR topology and
Infineon’s patented active burst mode feature. TDA486x (G) is a DCM PFC IC which can achieve a power factor close to 1
and low Total Harmonic Distortion (THD).
Topology
Voltage Class
Technology
Benefit
QR Flyback IC
500V
ICE2QS03G
High efficiency, high standby power
DCM PFC IC
650V
TDA486x(G)
High PFC, low THD
Blockdiagram
USB Port
Vout
(5,9,12,20V)
85...265VAC
D+
D–
Gate
VCC
SR
Gate
FB
CS
Gate
HV_IN
Adaptive Vout
PWM controller
FB
Wake up
Int*
FB
D+
D–
15
PC Silverbox
SMPS
PC Silverbox
Latest PC models dramatically cut active and standby energy consumption by implementing more efficient Power
Supply Units (PSU) and low power processors and chipsets.
Today’s requirement for OEM PC power is a small form factor with better performance and embedded diagnostics.
An intelligent control scheme that enables the adaption of load variation to minimize power consumption, together
with optimized power semiconductors, is the key in meeting market demands. Proven reference designs are available
to help designers to develop the best-possible PC Power Supply solutions – from greater efficiency to lower overall
system cost.
CoolMOS™ P6 family is the recommended solution to achieve a compact form factor with the highest efficiency even
at very light load conditions. This is due to its optimized Eon and Eoff losses without the compromise in performance
during hard commutation. CoolMOS™ CE is an alternative option for a price driven segment where the main concern is
the maintenance of design robustness even if the board layout is not optimized.
Topology
Voltage Class
Technology
Benefit
DCM/CCM PFC, HB LLC
600V
CoolMOS™ P6
Low gate charge for enhanced light load efficiency and low power
consumption at no load condition
Rugged body diode for HB LLC application
DCM/CCM PFC, HB LLC
600V
CoolMOS™ C6/E6
Easy control of switching behavior even in not optimized layout
Rugged body diode which prevents device failure during hard
DCM/CCM PFC, HB LLC
500V
CoolMOS™ CE
commutation
Low Voltage MOSFETs
For Synchronous Rectification and DC/DC, we recommend our OptiMOS™ 40V and 60V families which combine
extremely low on-state resistance with low capacitances.
Topology
Voltage Class
Technology
Benefit
HB LLC + center-tap
40V
OptiMOS™
Optimized cost/performance, layout tolerance
HB LLC + center-tap
60V
OptiMOS™
Layout tolerance, low thermals
Boost Diodes
For DCM PFC topologies, a low forward voltage diode is recommended. Rapid 1 diodes have a low and temperaturestable forward voltage to simplify design effort. For CCM PFC topologies, a low reverse recovery charge diode is used
to minimize diode switching losses. Rapid 2 diodes have a low peak reverse recovery current that lowers both diode
switching losses and PFC switch turn-on losses.
16
Topology
Voltage Class
Technology
Benefit
DCM PFC
650V
Rapid 1
CCM PFC
650V
Rapid 2
Low reverse recovery losses and PFC switch turn-on losses
Applications
PC Silverbox
Control ICs
QR/FF CoolSET™ , either 650V or 800V, is the best choice for the auxiliary power. Most importantly it can achieve very
low standby power. It is cost effective and easy to use. ICE3PCS0xG is the latest CCM PFC IC which implements digital
control and can achieve high PFC, low THD and fast response. ICE1/2HS01G is the novel resonant LLC half-bridge
controller IC which is easy to use and can achieve high efficiency and low EMI by ZVS switching.
Topology
Voltage Class
Technology
Benefit
QR/FF Flyback CoolSET™
650V/800V
ICE2QRxx65/80(Z)(G)
ICE3xRxx65/80J(Z)(G)
Low standby power, high efficiency
CCM PFC IC
800V
ICE3PCS0xG
High PFC, low THD
HB LLC IC
650V
ICE1HS01G-1
ICE2HS01G
High efficiency, low EMI
Blockdiagram
Driver + OptiMOS™
DC/DC
PFC
CoolMOS™
CoolMOS™
CoolMOS™
SiC Diode
5V
OptiMOS™
DC/DC
3V3
12V
OptiMOS™
PWM
5V
CoolSET™
17
TV Power
SMPS
TV Power
In addition to their outstanding image quality, new generation TVs gain attention for their user interface, low power
consumption and for the slim silhouette. Power Supply Unit (PSU) with a high degree of embedded intelligence and a
low profile to maintain the TV’s slim appearance are required. Infineon’s Power Supplies feature power metering and
communication of diagnostics, characterized by high efficiency, good thermal and EMI performance while keeping
short design cycles, avoiding R&D cost increase and still being highly cost-effective.
A low profile Power Supply within a demanding thermal environment will require excellent thermal performance
parts with low losses even at high switching frequencies. CoolMOS™ P6 family addresses this challenge with enhanced
turn-on and turn-off losses which results in better efficiency. For applications that do not operate at high switching
frequencies, CoolMOS™ CE/C6/E6 provide gentle switching behavior due to higher output capacitance (Coss) and
internal gate resistor. This results in low RFI and minimal voltage oscillations resulting in unwanted parasitic due to
PCB layout.
Topology
Voltage Class
Technology
Benefit
DCM PFC, HB LLC
600V
CoolMOS™ P6
Rugged body diode which prevents device failure during
hard commutation
DCM PFC, HB LLC
500V/600V
CoolMOS™ CE
hard commutation
DCM PFC, HB LLC
600V
CoolMOS™ C6/E6
hard commutation
Low Voltage MOSFETs
The OptiMOS™ 5 100V family, along with the OptiMOS™ 3 100V, with the lowest RDS(on) when compared to other similar
devices, help to keep conduction losses to a minimum, benefiting thermal management. The OptiMOS™ 5 family has
reduced output charge, which reduces the overshoot in the Synchronous Rectification stage.
Topology
Voltage Class
Technology
Benefit
Flyback
100V
OptiMOS™ 3/5
Boost Diodes
For DCM PFC topologies, a low forward voltage diode is recommended. Rapid 1 diodes have a low and temperaturestable forward voltage to simplify design effort.
18
Topology
Voltage Class
Technology
Benefit
DCM PFC
650V
Rapid 1
Applications
TV Power
Control ICs
QR/FF CoolSET™ 650V is the best choice for the auxiliary power. Most importantly, it can achieve very low standby
power. TDA486x(G) is a DCM PFC IC which can achieve a power factor close to 1 and low Total Harmonic Distortion
(THD). ICE1/2HS01G is the novel resonant LLC half bridge controller IC which is easy to use and can achieve high
efficiency and low EMI by ZVS switching. To address the market needs for lower system cost, the upcoming controller
ICs will implement efficient digital control modes during standby. This enables the removal of the auxiliary Power
Supply while meeting the stringent regulative requirements. A full set of protection features required in TV applications
and flexible IC parameterization will complement these innovative IC solutions.
Topology
Voltage Class
Technology
Benefit
QR/FF Flyback CoolSET™
650V
ICE2QRxx65(Z)(G)
ICE3xRxx65J(Z)(G)
DCM PFC IC
650V
TDA486x(G)
High PFC, low THD
HB LLC IC
650V
ICE1HS01G-1
ICE2HS01G
Blockdiagram
SiC Diode
e.g.
IDT02S60C
SDT02S60C
CoolMOS™
600V C3, CP, C6, E6, P6
500V CE
Main converter
Half bridge resonant converter
Pulse
Transformer
EMI Filter
180V output
LED Backlight
18V/12V output
System & Audio
HB LLC
controller
PFC Controllers
e.g.
ICE3PCS0X
ICE2PC20X
TDA4863-2
ICE1HS01G-1
PFC
Controller
CoolMOS™
600V C3, CP, C6, E6, P6
500V CE
CoolSET™ new Series F3R
e.g. ICE3BR4765J
5V
Standby &
Microcontroller
controller
PFC pre-regulator
Boost converter
Standby converter
Fixed frequency flyback
19
Server Power Supply
SMPS
Server Power Supply
The rising cost of energy and environmental concerns makes SMPS efficiency optimization a key requirement across
the entire load range for Server and Data Center design. This challenging task is combined with the requirement for
higher power. In the PFC stage and in general hard switching topologies used in Server applications, Infineon proposes
CoolMOS™ C7 family with the lowest FOM RDS(on) *Qg and RDS(on) *Eoss. This provides the lowest switching losses necessary
in fast switching needed in high-end Server SMPS, optimizing the efficiency starting from very light load operation. The
very compact SMD packages such as ThinPAK offer benefits in space and power density, and are used with Infineon’s
new industry standard non-isolated driver family 2EDN752x (available from mid 2015). Complementary to CoolMOS™
C7 in high efficiency PFC is the SiC diodes Generation 5 family.
The CoolMOS™ P6 family offers a good compromise between price and performance. This is valuable in both PFC and
HV DC/DC stages where the low Qg and turn-off losses are important benefits, especially in the case of high switching
frequency operation and high light load efficiency requirements. In applications with a low output voltage and
high output current, further efficiency improvements have been made possible by the continuous reduction of onresistance by Infineon’s low-voltage OptiMOS™ MOSFET series used in the Synchronous Rectification stage.
The new C7 series offers Best-in-Class performance in CCM Mode PFC enabling highest efficiency to be achieved over
the full load range. The world best Ron*A enables smaller footprint packages to be used bringing benefits in power
density. The low Qg achieves better light load efficiency – an enhanced requirement in today’s Server SMPS. Also,
the CoolMOS™ C7 enables moving to higher switching frequencies without loss in efficiency, bringing benefits in
power density by reducing the size of magnetic components. P6 is a well-balanced product family, which brings high
efficiency in PFC topology, but due to its rugged body diode, can also be used in resonant DC/DC topologies such as
LLC. The reduced Qg leads to benefits in light load efficiency.
Functional Block
Topology
Voltage Class
Technology
Benefit
PFC
CCM/interleaved
PFC; TTF
650V
CoolMOS™ C7
Best FOM RDS(on)*Qg and RDS(on)*Eoss
Lowest RDS(on) per package
Low dependency of switching losses form Rg, ext
PFC and PWM
CCM/interleaved
PFC; TTF HB LLC
600V
CoolMOS™ P6
hard commutation
SiC Diodes
The recommended diode for CCM PFC applications is the 650V thinQ!™ SiC Schottky Diode Generation 5, which
include Infineon’s leading edge technologies, such as diffusion soldering process and wafer thinning technology.
These Generation 5 products provide ~ 25% lower VF over previous generations. The result is a new family of products
showing improved efficiency over all load conditions, coming from both the improved thermal characteristics and an
improved Figure-of-Merit (QC x VF).
20
Functional Block
Topology
Voltage Class
Technology
Benefit
PFC
CCM/interleaved PFC
650V
SiC Generation 5
Low FOM VF*QC
Applications
Server Power Supply
Low Voltage MOSFETs
Functional Block
Topology
Voltage Class
Technology
Benefit
Synchronous
Rectification
HB LLC + center-tap
40V
OptiMOS™
High efficiency over whole load range, layout tolerance
ITTF
60V
OptiMOS™
High efficiency, low thermals, low VDS overshoot
ZVS PS FB + center-tap
80V
OptiMOS™
High efficiency over whole load range, low VDS overshoot and
oscillations
Control ICs
Since the control has a crucial role in the optimal SMPS design, Infineon also proposes families of analog (ICEXX /
TDAXX families) and digital controllers (XMC family) able to meet different needs, including power management and
digital communication topics. QR/FF CoolSET™ 800V, is the best choice for the auxiliary power. Most importantly, it
can achieve very low standby power. It is cost effective and easy to use. ICE3PCS0xG is the latest CCM PFC IC which
implements digital control and can achieve high PFC, low THD and fast response. ICE1/2HS01G is the novel resonant
LLC half bridge controller IC which is easy to use and can achieve high efficiency and low EMI by ZVS switching.
Functional Block
Topology
Voltage Class
Technology
Benefit
Auxilliary Power
Supply
QR/FF Flyback
CoolSET™
800V
ICE2QRxx80(Z)(G)
ICE3xRxx80J(Z)(G)
Low standby power, High efficiency
PFC
CCM PFC IC
800V
ICE3PCS0xG
High PFC, Low THD
PWM
HB LLC IC
800V
ICE1HS01G-1
ICE2HS01G
PFC and PWM
PFC/LLC/ZVS PS FB/TTF 800V
XMC
Flexibility, HR PWM, digital communication
IGBTs
For price optimization, Infineon offers two excellent alternatives. The TRENCHSTOP™ 5 technology provides
outstanding performance at excellent price point which is ideal for PFC and inverter stages addressing the Gold
efficiency standard. The TRENCHSTOP™ 5 features a very low Qg to achieve high light load efficiency. The H5 is
suitable for plug & play replacement of MOSFET while F5 version is optimized for high efficiency solutions. Both the
H5 and F5 include an ultra-fast discrete free-wheeling diode which has been optimized for improved ruggedness in
ZVS and LLC topologies.
Functional Block
Topology
Voltage Class
Technology
Benefit
PFC
CCM/interleaved PFC
650V
TRENCHSTOP™ H5
Ease-of-use
CCM/interleaved PFC
650V
TRENCHSTOP™ F5
High efficiency in low inductance designs
PWM
ZVS PS FB; LLC
650V
TRENCHSTOP™ H5
Improved ruggedness and ease-of-use
ZVS PS FB; LLC, TTF
650V
TRENCHSTOP™ F5
Improved ruggedness and high efficiency in low inductance designs
21
Server Power Supply
Boost Diodes
In CCM PFC topologies, a low reverse recovery charge diode is used to minimize diode switching losses. Rapid 2 diodes
have a low peak reverse recovery current that lowers both diode switching losses and PFC switch turn-on losses. IGBT
and Rapid diode together provide excellent efficiency up to 100kHz, particularly under light load conditions.
Functional Block
PFC
Topology
CCM/interleaved PFC
Voltage Class
650V
Technology
Benefit
Rapid 2
Low reverse recovery losses and PFC switch turn-on losses,
common-cathode configuration
Blockdiagram
90...265VAC
AUX SMPS
DCM Flyback
QR Flyback
PFC
Classic
Interleaved
Bridgelsee
CoolMOS™
HV DC/DC
I-TTF
LLC
ZVS PS FB
CoolMOS™
12Vsb
Main XFMR
Synchronous
Rectification + Or-ing
OptiMOS™
12V
IC Driver
Gate XFMR
Primary
Digital
Controller
XMC4200
22
IC Driver
Photocoupler
RS232
Secondary
Digital
Controller
XMC4200
UART or
PMBus
Applications
SMPS
The telecommunication industry providing data, voice and video is nowadays continuously growing supported by
the expansion into the new markets, especially in Asia, accelerated by the spread of the wireless and broadband
technologies.
The outstanding improvements in Telecom SMPS performance achieved in the past 10 years have been primarily
brought by the dramatic reduction of the on-resistance achieved in high voltage MOSFETs using the revolutionary
Superjunction principle, introduced by Infineon at the end of the nineties in the CoolMOS™ series and equally
impressive improvements in reverse-recovery characteristics of high voltage SiC (Silicon Carbide) diodes. In order to
achieve the new challenging efficiency targets the Synchronous Rectification has become increasingly popular even in
the typically high output voltage of telecom rectifiers.
The CoolMOS™ C7 series offers Best-in-Class performance in CCM Mode PFC enabling highest efficiency to be achieved
over the full load range. The world best Ron*A enables smaller footprint packages to be used bringing benefits in power
density. The low Qg achieves better light load efficiency – an enhanced requirement in today’s Server SMPS. Also, the
CoolMOS™ C7 enables moving to higher switching frequencies without loss in efficiency, bringing benefits in power
density by reducing the size of magnetic components. CoolMOS™ P6 is a well-balanced product family, which brings
high efficiency in PFC topology, but due to its rugged body diode, can also be used in resonant DC/DC topologies such
as LLC. The reduced Qg leads to benefits in light load efficiency.
For ZVS topologies in the HV DC/DC Stages, Infineon has developed the CoolMOS™ CFD2 family, combining the
requirements of high performance with the high reliability given by the Fast Body Diode concept.
Functional Block
Topology
Voltage Class
Technology
Benefit
PFC
CCM/interleaved
PFC; TTF
650V
CoolMOS™ C7
Best FOM RDS(on)*Qg and RDS(on)*Eoss
Low dependency of switching losses form Rg,ext
PWM
Resonant PFC;
Resonant HV DC/DC
stages
HB LLC or ZVS PS
650V
CoolMOS™ CFD2
Significant Qg reduction compared CFD1 technology
Defined trr, max and Qrr, max values
Lower price compared to CFD1 technology
CCM/interleaved
PFC; TTF HB LLC
600V
CoolMOS™ P6
hard commutation
23
Driver ICs
Functional Block
Topology
Voltage Class
Technology
Benefit
PFC
CCM/interleaved PFC
1200V
1ED compact
Very high CMTI
Functional Block
Topology
Voltage Class
Technology
Benefit
PFC
CCM/interleaved PFC
650V
SiC Generation 5
Low FOM VF*QC
Voltage Class
SiC Diodes
Low Voltage MOSFETs
Functional Block
Topology
Technology
Benefit
Synchronous
80V - 200V
Rectification MOSFET
OptiMOS™
Industry’s lowest FOM (RDS(on)*Qg) leading to high efficiency at good
Or-ing
Or-ing MOSFET
60V - 150V
OptiMOS™
Battery Protection
MOSFET
60V - 150V
OptiMOS™
Small Signal
Isolated DC/DC
Primary Side PWM
MOSFET
60V - 200V
OptiMOS™
Small Signal
Non isolated PoL,
Buck
price/performance
Low voltage overshoots enabling easy design in
Industry’s lowest RDS(on)
Highest system efficiency and power density
Outstanding quality and reliability
Reduces the need for a snubber circuit
Synchronous
40V - 100V
Rectification MOSFET
OptiMOS™
Or-ing MOSFET
25V - 30V
OptiMOS™
MOSFET
20V - 30V
OptiMOS™
Small Signal
Power Stage
25V - 30V
DrMOS, DrBlade™
Driver and MOSFET in one package
Double side cooling possibility
Integrated sense feature (thermal and current)
PRIMARION™
Triple-rail & multi-phase controllers with I2C/PMBus, integr. NVM
Temp. range -40 to +125°C, power modes <30,<0.5,<0.2mW
Integr. ARM µ-processor
External temp. sense, digitally programmable PID & current balancing
Active Transient Response (ATR) modulation for optimum response
Digital DC/DC
Controller
to high di/dt load transients
Since the control has a crucial role in the optimal SMPS design, Infineon also proposes families of analog (ICEXX /
TDAXX families) and digital controllers (XMC family) able to meet different needs, including power management and
digital communication topics.
Control ICs
24
Functional Block
Topology
Voltage Class
Technology
Benefit
Auxilliary Power
Supply
QR/FF Flyback
CoolSET™
800V
ICE2QRxx80(Z)(G)
ICE3xRxx80J(Z)(G)
PFC
CCM PFC IC
800V
ICE3PCS0xG
High PFC, low THD
PWM
HB LLC IC
800V
ICE1HS01G-1
ICE2HS01G
PFC and PWM
PFC/LLC/ZVS-PSF/TTF
800V
XMC
Flexibility, HR PWM, digital communication
Applications
IGBTs
For price optimization, Infineon offers two excellent alternatives. The TRENCHSTOP™ 5 technology provides
outstanding performance at excellent price point which is ideal for PFC and inverter stages, addressing Gold Efficiency
Standard. The TRENCHSTOP™ 5 features a very low Qg to achieve high light load efficiency. The H5 is suitable for plug &
play replacement of MOSFET while F5 version is optimized for high efficiency solutions. Both the H5 and F5 include an
ultra-fast discrete free-wheeling diode which has been optimized for improved ruggedness in ZVS and LLC topologies.
Functional Block
Topology
Voltage Class
Technology
Benefit
PFC
CCM/interleaved
PFC; TTF
650V
TRENCHSTOP™ H5
Ease-of-use
PFC
CCM/interleaved
PFC; TTF
650V
TRENCHSTOP™ F5
High efficiency, low gate drive losses in low inductance designs
PWM
ZVS PS FB; LLC
650V
TRENCHSTOP™ H5
Improved ruggedness and ease-of-use
In cost optimized PFC, Rapid 2 diode is able to provide low Qrr and Irrm at a very attractive price.
Boost Diodes
Functional Block
Topology
Voltage Class
Technology
Benefit
PFC
CCM/interleaved PFC
650V
Rapid 2
Low reverse recovery losses and PFC switch turn-on losses,
common-cathode configuration
Blockdiagram
Analog and Digital Control ICs
VBULK
VIN
AC
AC/DC rectifier
PFC
Main Stage
Rectification
Or-ing,
Hot Swap
VOUT
DC
AUX
Isolated DC/DC
DC
Non-Isolated PoL
niPOL, Buck
Power
Distribution
Hot Swap
Hot Swap
Load
Rectification
Load
Battery Protection
25
Battery Charger
E-Mobility
Best Solutions for Battery Chargers
To recharge the battery of an electric or hybrid/electric car, a charger is needed. Chargers can be implemented onboard or off-board the vehicle. Electric energy may be transferred to the vehicle by wire or by wireless methods like
resonant inductive power transfer. Power units on-board the vehicle require automotive-grade components, while the
wider product selection of industrial-grade components can be used for off-board units.
On-Board Chargers
In cars with On-Board Chargers the batteries can be recharged from any standard AC power outlet which provides
maximum power of 3.6kW best case (single phase 230V/16A). This standard charging at low power takes several hours
(overnight). Battery charging via the power grid requires a flexible power converter topology to handle different
voltage and power ratings wherever the car may go to and On-Board Chargers need to be as efficient and small as
possible to stay cool at lowest possible weight.
Off-Board Chargers
In Off-Board Chargers, the power conversion from AC grid voltage to DC battery voltage is done outside the car and
the resulting DC power is transmitted by wire to the EV’s DC-charging socket. Ultra-fast chargers with power ratings at
50kW and more have been designed in this way. As the power converter is off-board, automotive grade qualification is
not required for the respective electronic components.
Apart from fast and ultra-fast chargers, there may be a market for Off-Board Chargers in the power range up to 10kW,
for example to charge small and economic electric vehicles (LEVs). Also in case of the Off-Board Chargers, selecting the
right topology to enable maximum conversion efficiency is an important design criterion.
Diagram of AC/DC Battery Chargers: Functional Blocks
L1
Power
(Grid)
L2
L3
N
RFI
Filter
PFC
DC/DC
Converter
RFI
Filter
PFC
DC/DC
Converter
RFI
Filter
PFC
DC/DC
Converter
Battery
Management
L1
L2
L3
Auxiliary
Power
Supply
Microcontroller
Power Supply
32-bit
Microcontroller
TC23xL
TC26xD
XMC1000*
XMC4000*
Transceiver
*For off-board chargers onliy
26
Control + Display
Isolated Current
Sensor
Isolation
I/V Measurement
Single Phase Charger
Applications
Wireless Chargers
Product Portfolio for On-Board & Off-Board Charger Applications
Infineon’s comprehensive portfolio of semiconductors (sensors, Microcontrollers, power semiconductors, etc.) lends
itself perfectly to designs of compact units for on-board, off-board and wireless charging. Our products in this sector
support high switching frequencies at lowest possible RDS(on) to enable compact and efficient designs : MOSFETs such
as CoolMOS™ , IGBTs TRENCHSTOP™ 5 and SiC Schottky Diodes like 650V thinQ!™ SiC Diode. In addition, integrated
MOSFET and IGBT drivers, controller ICs for active CCM PFC high-performance Microcontroller solutions and high
accurate current sensors complete our product portfolio.
Automotive Products for On-Board Units Product Family
Description
1ED020I12FA2
Single-channel isolated driver for 650V/1200V IGBTs and MOSFETs
Automotive EiceDRIVER™
1ED020I12FTA
Single-channel isolated driver, two-level turn-off for 650V/1200V IGBTs
2ED020I12FA
Dual-channel isolated driver for 650V/1200V IGBTs and MOSFETs
IPx65RxxxCFDA
CoolMOS™
650V MOSFET with integrated Fast Body Diode
IKWxxN65F5A
TRENCHSTOP™ 5
650V fast IGBT with Rapid 1 Diode
IGWxxN65F5A
TRENCHSTOP™ 5
650V fast IGBT single
32-bit lockstep Microcontroller
TC23xL, TC26xD
AURIX™
TLF35584 1)
System Supply
New ISO26262-system-supply optimized for AURIX™
TLE7250G
Transceiver
High-speed automotive CAN transceiver
TLE6251D
Transceiver
High-speed automotive CAN transceiver, with wake-up
Industrial Products for Off-Board Units
Product Family
Description
IKWxxN65F5
TRENCHSTOP™ 5
IGWxxN65F5
TRENCHSTOP™ 5
IDWxxG65C5
thinQ!™
650V SiC Schottky Diode Generation 5
IPW65RxxxC7
CoolMOS™
650V MOSFET, C7 series for hard switching topologies
HYBRIDPACK™ 1
Power Module
1200V/200A for fast & ultrafast charging (>10kW/phase)
XMC1000 2), XMC4000 2)
XMC Microcontroller
32-bit ARM® Cortex™ M0/M4F Microcontrollers, up to 125ºC
ambient temperature (XMC4000)
IFX1763, IFX54441, IFX54211
Linear Voltage Regulator
Linear voltage regulator family with output current capability
of 500mA/300mA/150mA respectively
IFX1050, IFX1021
Transceiver
High-speed CAN transceiver / LIN transceiver
TLI4970
Current Sensor
600V functional isolation, ± 50A
Wireless Charging
Wireless methods for power transfer to charge the batteries of electric vehicles are gaining attention. Several concepts
for wireless power transfer systems have been proposed, which in general seek to compensate the significant stray
inductances on primary and secondary sides of the magnetic couplers by adaptive resonant methods. By the end
of 2013, SAE announced a future standard for inductive charging which will define 3 power levels at 85kHz. Our
TRENCHSTOP™ 5 IGBT and thinQ!™ SiC Diodes are perfectly suited for driving inductive power transfer systems (on the
road side) which operate inside the 80kHz to 90kHz band.
M
Power
(Grid)
50/60Hz
~
PFC
AC/DC
+
Inverter
-
Resonance
Loops
~
85kHz
Receiver
~
Resonance
Loops
Rectifier
Road Side
+
-
+
Battery
Management
HV
Battery
-
Car Side
1) in development
2) for external chargers
27
Charger Concepts
Automotive Products for the Car Side
Product Family
Description
1ED020I12FA2
Single-channel isolated driver for 650V/1200V IGBTs and MOSFETs
1ED020I12FTA
Single-channel isolated driver, two-level turn-off for 650V/1200V IGBTs
2ED020I12FA
Dual-channel isolated driver for 650V/1200V IGBTs and MOSFETs
IPx65RxxxCFDA
CoolMOS™
IKWxxN65F5A
TRENCHSTOP™ 5
IGWxxN65F5A
TRENCHSTOP™ 5
TC23xL, TC26xD
AURIX™
32-bit lockstep Microcontroller
TLF35584 1)
System Supply
Industrial Products for the Road Side
Product Family
Description
IKW40N65F5
TRENCHSTOP™ 5
Fast IGBT with Rapid 1 Diode, 40A, TO-247
IGW40N65F5
TRENCHSTOP™ 5
Fast IGBT, single, 40A, TO-247
IDW40G65C5
thinQ!™
650V SiC Schottky Diode Generation 5, 40A, TO-247 2)
XMC4000
XMC Microcontroller
32-bit ARM® Cortex™ -M4F Microcontrollers, up to 125 ºC ambient temperature
IFX1763, IFX54441
Linear voltage regulator family with output current capability of 500mA or 300mA respectively
TLI4970
Current Sensor
600V functional isolation, +/- 50A
Available in different current ratings too.
Charger Concepts without Galvanic Isolation of the Power Stages
Transformerless design, without galvanic isolation inside the power stages, are economic and efficient. But enhanced
safety measures may be required to operate such designs from standard AC-grid power outlets. There need to be
Type-B RCD (GFCI) safety switches on the grid side to immediately break the circuit in case an unintended feedback of
DC-voltage from the HV-battery into the AC-grid occurs under worst case failure conditions, but Type-B safety switches
on the grid side are not standard by today. This is a main reason why non-isolated designs are currently not accepted
for On-Board Chargers as the level of safety-measures on the grid side of the charging spot is uncertain. However,
inside an Off-Board Charger installation with an integrated Type-B safety switch, the use of non-isolated concepts may
be indicated. To highlight their opportunities, Infineon has investigated non-isolated concepts, built and evaluated
laboratory-demonstrators of single-phase 3kW chargers without galvanic isolation inside the power stages.
L1
Power
(Grid)
AC/DC
RCD
(GFCI)
Type B
~
N
PFC w/o
galvanic
isolation
+
+
DC/DC
Buck
-
-
To EV‘s DC
Charging Socket
Concept Demonstrator of Lean and Efficient Off-Board DC-Charger w/o galvanic isolation
Input 230V/50Hz single phase AC
Output 220V – 390VDC, max. power 3.3kW at 350V with 96.2% efficiency
More detailed information about this demonstrator is available upon request.
Industrial Products for the Road Side
Product Family
Description
ICE3PCS01G
Integrated controller
For active CCM PFC, PG-DSO-14
IPW65R019C7
CoolMOS™
650V MOSFET, 19mΩ, TO-247
IDW30G65C5
thinQ!™
650V SiC Schottky Diode Generation 5, 30A, TO-247
TLI4970
Current sensor
600V functional isolation, ± 50A
1) in development
2) Automotive version under consideration
28
Applications
Battery Management
Best Solution for Battery Management
An intelligent Battery Management System (BMS) is necessary to sustain battery performance throughout its entire lifetime
- the challenge there is to tune the utilization of each battery cell individually. Passive cell balancing is the default approach
where the weakest one of the cells sets the limits for battery lifetime and cruising range. Infineon’s Microcontrollers and
sensors in combination with our power devices enable active cell balancing while charging and discharging. An active
cell balancing system helps to increase the effective cruising range and the battery’s lifetime by 5 to 10 %, compared to
passive balancing. In this context we want to mention our 8-bit XC886CM Microcontroller family for the slave blocks and the
new 32-bit AURIX™ Microcontroller family for the master block, our OptiMOS™ low voltage MOSFETs, our automotive CAN
transceivers TLE7250G, TLE6251D as well as step-down DC/DC controllers TLE6389-2GV and brand-new TLF35584.
Main Switch
Product Family
Description
IPx65RxxxCFDA
CoolMOS™
Battery Master
Description
TC23xL, TC26xD
New 32-bit AURIX™ lockstep Microcontroller
TLF35584 1)
TLE7250G
TLE6251D
High-speed automotive CAN transceiver, with wake-up
Battery Master
Description
XC886CM
8051 compatible 8-bit automotive Microcontroller
TLE6389-2GV
Step-down DC/DC controller
TLE7250G
IPG20N04S4L
OptiMOS™ -T2 Power-Transistor, Logic Level, Dual, 40V/8.2mW
IPD70N03S4L
OptiMOS™ -T2 Power-Transistor, Logic Level, 30V/4.3mW
IPD70N10S3L
OptiMOS™ -T2 Power-Transistor, Logic Level, 100V/11.5mW
Private CAN
Battery Block Slave
8-bit µC XC 886CM
6x IPG20N04S4L-08
IPD70N03S4L
IPD70N10S3L
TLE7250G
TLE6389-2GV
Battery Master
32-bit Microcontroller
TC23xL/TC26xD
Public CAN
TLF35584
HS-CAN Transceiver
TLE7250G
Battery Block Slave
8-bit µC XC 886CM
6x IPG20N04S4L-08
IPD70N03S4L
IPD70N10S3L
TLE7250G
+
Main Switch
CoolMOS™ 650V
150-400V
-
TLE6389-2GV
Battery Block Slave
8-bit uC XC 886CM
6x IPG20N04S4L-08
IPD70N03S4L
IPD70N10S3L
TLE7250G
TLE6389-2GV
1) in development
29
Solar
Solar
Leading Products for Solar Power Systems
Infineon provides a comprehensive portfolio to deliver the best efficiency and reliability for Solar applications.
Infineon’s leading edge technology like Superjunction MOSFET, TRENCHSTOP™ and Fieldstop IGBT, Coreless
transformer driver etc. combined with rich experience and highest quality, ensured our number 1 position in
Solar application. The newest add ARM® Cortex™ -M4 based MCU enables easy and high efficiency design.
Optimizer
250W - 750W
Single/Dual Micro Inverter
250W-600W; 900W
OptiMOS™
SSO8 | 60V-200V
OptiMOS™
SSO8 CanPAK™ | 75V - 150V
MOSFET
String Inverter
1kW - 30kW
CoolMOS™
D2PAK/ThinPAK
600V-800V
CoolMOS™
TO-247 | 600V/650V | 19mΩ-99mΩ
thinQ!™
ThinPAK/DPAK | 650V/1200V
SiC Diode
thinQ!™
TO-220/TO-247 | 650V/1200V
IGBT
TRENCHSTOP™/HighSpeed 3
600V/650V/1200V TO-247 Single/Duo Pack
Power Module & Stack
EasyPACK 1B/2B Press FIT
Driver
IGBT Driver: 1ED020I12-F2, 2ED020I12-F2
Schottky Diode
BAT165 Schottky Diode
Auxiliary Power Supply
CoolSET™
800V
Microcontroller
XMC 1xxx ARM® Cortex™-M0
XMC 45xx ARM® Cortex™-M4
Infineon Leading Products for Complete Solar System
PV
OptiMOS™*
CoolMOS™
thinQ!™
Rapid Diode
IGBT
OptiMOS™*
CoolMOS™
thinQ!™
Rapid Diode
Boost
DC/DC
Power Module
CoolMOS™
IGBT
DC/AC
Active
Junction Box
OptiMOS™
Grid
EiceDRIVER™
...
Sensors
EiceDRIVER™
...
EiceDRIVER™
...
PWM
MPPT
XMC1000/XMC4000
AURIX™
30
Auxiliary
Power Supply
Applications
Solar
CoolMOS™
SiC Diode
CoolMOS™
SiC Diode
Grid
CoolMOS™
SiC Diode
CoolMOS™
SiC Diode
OptiMOS™
PV
OptiMOS™
DC 20V to 90V
45V (typ.)
OptiMOS™
OptiMOS™
Micro Inverter
XMC1000/XMC4000
Microcontroller
Power Supply
MPPT
Calculation
PWM
Generation
ADC
Infineon OptiMOS™ for Micro Inverter
Input Voltage
Topology
MOSFET Breakdown Voltage
SuperSO8 Suggestion
CanPAK™ Suggestion
D2PAK Suggestion
Up to 48V
Half bridge, full bridge,
LLC and other resonant
60V
BSC014N06NS
BSC016N06NS
BSC028N06NS
BSC039N06NS
BSB028N06NN3G
–
Up to 64V
80V
BSC030N08NS5
BSC052N08NS5
BSB044N08NN3G
–
Up to 80V
100V
BSC035N10NS5
BSC040N10NS5
–
IPB020N10N5
Up to 60V
Flyback
150V
BSC091N15NS5
BSC108N15NS5
BSC175N15NS5
BSB165N15NZ3
IPB041N15N5
IPB063N15N5
IPB108N15N3G
Push pull
200V
BSC320N20NS3G
–
IPB107N20N3G
Recommended Infineon CoolMOS™ for Micro Inverters
Topology
Package
Voltage Class
CoolMOS™
Current source
D²PAK
800V
SPB17N80C3
Current / voltage source
D²PAK
650V
IPB65R190C6
IPB65R190C7
IPB65R125C7
IPB65R095C7
IPB65R065C7
IPB65R045C7
ThinPAK 8x8
600V
IPL60R210P6
650V
IPL65R195C7
IPL65R130C7
IPL65R099C7
IPL65R070C7
Recommended Infineon Microcontrollers for Micro Inverters
Topology
Package
Voltage Class
Technology
Microcontroller
All
All
XMC1000
Microcontroller Supply
Linear voltage regulator
Up to 20V
IFX1763, IFX54441, IFX54211
Microcontroller
All
All
XMC4000
31
Solar
DC 20V to 150V
45V (typ.)
OptiMOS™
OptiMOS™
Optimizer
~ DC 80V (typ.)
OptiMOS™
OptiMOS™
PV
XMC1000
Microcontroller
Power Supply
MPPT
Calculation
PWM
Generation
ADC
Infineon OptiMOS™ for Optimizer DC/DC Power Conversion
Input
Voltage
Topology
MOSFET
Breakdown voltage
SuperSO8
Suggestion
S3O8 Suggestion
CanPAK™ Suggestion
D2PAK and DPAK
Suggestion
Up to 48V
Buck-boost
60V
BSC016N06NS
BSZ042N06NS
BSB028N06NN3G IPB026N06N
Up to 60V
Buck-boost
75V
BSC042NE7NS3G
–
–
IPB049NE7NS3G
Up to 64V
Buck-boost
80V
BSC027N08NS5
BSC052N08NS5
BSC117N08NS5
BSZ075N08NS5
BSZ084N08NS5
BSZ110N08NS5
BSB044N08NN3G
BSF134N10NJ3G
IPB017N08N5
IPB031N08N5
IPB049N08N5
Up to 80V
Buck-boost
100V
BSC035N10NS5
BSZ097N10NS5
BSB056N10NN3
IPB020N10N5
Up to 125V
Buck-boost
200V
BSC320N20NS3G
BSZ900N20NS3 G
–
IPD320N20N3G
Recommended Infineon Microcontrollers for Power Optimizers
Server Power Supply
Topology
Voltage Class
Microcontroller
All
All
Technology
XMC1000
MC Supply
Up to 20V
IFX1763, IFX54441
Microcontroller
All
All
XMC4000
String Inverter (Non-Isolated)
Inverter
CoolMOS™
< 600V DC
(typ.)
PV
EiceDRIVER™
TRENCHSTO P™ 5/HighSpeed 3
SiC Diode/
Rapid Diode
PV
TRENCHSTOP™ 5/HighSpeed 3
Boost
Grid
Sensors
EiceDRIVER™
...
...
PWM
MPPT
Microcontroller
Power Supply
32
XMC4000
MPPT
Calculation
PWM
Generation
ADC
Applications
String Inverter (Three-Phase)
Inverter
Boost
Phase C
SiC Diode
1200V
Phase B
Phase A
HighSpeed 3
1200V
<1000V
(typ.)
TRENCHSTOP™ 5
650V
HighSpeed 3 1200V
PV
PV
3~
Grid
Grid
Sensors
EiceDRIVER™
EiceDRIVER™
...
...
PWM
XMC4000
MPPT
Microcontroller
Power Supply
MPPT
Calculation
PWM
Generation
ADC
Infineon Discrete Power Device for String Inverter
Typical Part Number Voltage Class
Power Device
Driving Method
Voltage Class
Typical Part Number
CoolMOS™ CP/C7
IPW65R045C7
650V
IGBT
Single channel
1200V
1ED020I12-F2/B2
thinQ!™ SiC Diode
IDW20G65C5
650V
IGBT
Half bridge
1200V
2ED020I12-FI
Inverter Type Function Product Series
Single Phase
Boost
DC/DC
CoolMOS™ C6
IPW65R041C6
650V
thinQ!™ SiC Diode
IDW20G65C5
650V
Rapid Diode
IDW15E65D2
650V
Inverter HighSpeed 3
Three Phase
Boost
Infineon EiceDRIVER™ for String Inverter
IKW40N60H3
600V
TRENCHSTOP™ 5
IKW40N65H5
650V
CoolMOS™ C6
IPW65R041C6
650V
HighSpeed 3
IKW40N120H3
1200V
thinQ!™ SiC Diode
IDW40G120C5B
1200V
IKW40N120H3
1200V
Inverter HighSpeed 3
Infineon CoolSET™ for String Inverter
Voltage class
Typical Part Number
800V
ICE3AR2280JZ
650V
ICE3BR1765JZ
Recommended Infineon Microcontrollers for String Inverters
Server Power Supply
Topology
Voltage Class
Microcontroller
All
All
Technology
XMC4000
Up to 20V
IFX1763, IFX54441
33
Induction Cooking
Highest Performance and Efficiency for Induction Cooking Appliances
Resonant-switching applications such as induction cooktops and inverterized microwave ovens have unique system
requirements. The consumer market place demands that they be cost effective, energy efficient and reliable. To
achieve these goals, designers need devices that are created specifically for these applications.
Infineon’s RC-H family of discrete IGBTs was developed for soft switching with a monolithically integrated reverse
conducting diode. With this technology leadership and a broad portfolio of devices from 650V to 1600V, it is the market
leader and provides the industry benchmark performance in terms of switching and conduction losses.
The newest generation in the family is the RC-H5, which extends the performance leadership for both half bridge
and single ended designs. New 650V devices with higher blocking voltage offer higher reliability with improved
performance even in designs which require higher frequencies or hard switching conditions. The updated RC-H5
1350V and 1200V offer the lowest switching losses across a broad range of operating conditions, allowing customers to
develop the most efficient and reliable designs. Infineon also offers a range of complementary products which can be
used with the IGBT, as well as in the central control and Power Supply subsystems of Induction Cooking appliances.
Induction Heating Inverter (Current Resonance)
Induction Heating Inverter (Voltage Resonance)
Half bridge
Single switch
AUX
Lres
RC - IGBT
Lres
RC - IGBT
VAC
CK2
34
Cbus
Cres
Driver
Cbus
Cres
AUX
2
RC - IGBT
Driver
MCU
CK1
VAC
Lf
Cres
MCU
Lf
2
Induction Heating
Topology
Voltage Class
Technology/Product Family
Selection
DC/AC
Series resonant half bridge
650V
RC-H5
Recommendation
Quasi resonant single ended
1100V
RC-H3
Recommendation
1200V & 1350V
RC-H3, RC-H5
Recommendation
1600V
RC-H2
Recommendation
IGBT Driver
Single channel & half bridge
600V & 1200V
EiceDRIVER™
Recommendation
Microcontroller
-
-
XMC1000
Recommendation
Up to 20V
IFX54211
Efficiency
AUX
Flyback
650V
CoolSET™ QR
Efficiency
Flyback
800V
CoolSET™ QR
Recommendation
Buck Converter
800V
CoolSET™ F3
Recommendation
Applications
Aircon
Innovative Approach for Inverterized Drives
Product designers are facing the daunting challenge of delivering smaller, smarter, more powerful and more energyefficient appliances. Based on industry-leading technology and manufacturing expertise, our line of innovative
components for household appliances meets and exceeds even the most rigorous requirements for reliability and quality.
The block diagram of an air conditioning system together with the product selection table provides effective guidelines
for engineers in selecting the right component for each power management stage inside Major Home Appliances.
Rectification
Power Management
PLUG
DC
Supply
IGBT
Driver Stage
M
User Interface
&
Communication
Central Control
Unit
AF Discretes
Sense & Monitor
MCU
Rotor Position Detection
Aircon
Topology
Voltage Class
Selection
PFC AC/DC
PFC CCM (low frequency)
600V
TRENCHSTOP™
Recommendation
PFC CCM (high frequency)
600V
HighSpeed 3
Recommendation
PFC CCM
600V
CoolMOS™ P6
Reference
PFC CCM
650V
Rapid 1 and Rapid 2
Recommendation
PFC CCM
-
CCM PFC Controller
ICE2PCS0xG, ICE3PCS0xG
Recommendation
B6-VSI
600V
RC-Drives IGBT
Recommendation
B6-VSI
600V
TRENCHSTOP™
Efficiency
IGBT Driver
Driver for B6 bridge
600V
EiceDRIVER™ (6ED)
Recommendation
AUX
Buck converter
650V
CoolSET™ F3R
Recommendation
Flyback
800V
CoolSET™ QR
Recommendation
Buck converter
800V
CoolSET™ F3R
Recommendation
-
-
XMC1000
Reference
DC/AC
Microcontroller
-
-
XMC4000
Recommendation
Up to 20V
IFX1763, IFX54441, IFX54211
Efficiency
Communication
CAN, LIN transceiver
-
IFX1050, IFX1021
Robustness
Position Sensing
Angle sensor
-
TLE5009, TLE5012B
Recommendation
Hall switch
-
TLI496x
Recommendation
Angle Sensor
-
-
TLE5009, TLE5012B
Recommendation
Hall Switch
-
-
TLI496x
Recommendation
35
Lighting
Lighting
Long Lifetime & High Efficiency for Street Lighting & High Bay Lighting
Street Lighting and High Bay Lighting for warehouses, factories and other applications where high light output is
required are being converted into LED Lighting very fast.
Key drivers
Reduction of maintenance cost of LED systems due to longer lifetime
Higher efficiency of LED systems including light load condition during dimming at night
Infineon’s Offering for LED Lighting
Highly efficient AC/DC power conversion including light load condition
Big choice of highly efficient and reliable high voltage MOSFETs
Industry leading thermal protection provided by DC/DC LED driver IC’s
Modularity by selecting number of LED strings
Scalability by offering same footprint for different LED currents
Dual-Stage
PFC + LLC
60V DC/DC
ILD6000 series
Constant Voltage
DC/DC
Power
Dual-Stage
PFC + Flyback
Single-Stage
PFC/Flyback
40V DC/DC
ILD4000 series
Linear
BCR400 series
Constant Current
Power Conversion
AC/DC
Single-Stage PFC/Flyback
Buck Converter
Primary stage with
constant voltage output
Secondary stage with
constant current output
Primary stage with
constant current output
High Voltage MOSFETs for Lighting
CoolMOS™
Due to its low cost and easy implementation, Quasi-Resonant Flyback is the most commonly used topology in LED drivers. This makes CoolMOS™ 800V CE the perfect fit for this application. In addition to this, other topologies, such as fixedfrequent Flyback topology, are supported by 600V or 650V-type MOSFETs. For high-power Lighting applications, where
each percentage point counts, the P6-type for high performance and low RDS(on) MOSFETs are the preferred choice.
36
Topology
Voltage Class
RDS(on)
Selection
Quasi-Resonant Flyback
800V CE
1Ω … 2.8Ω
DPAK, IPAK
800V C3
85mΩ … 0.95Ω
TO-220, TO-220 FP
900V C3
340mΩ … 1.2Ω
TO-220, TO-220 FP
PFC stage
600V C6
99mΩ … 600mΩ
DPAK, TO-220 FP
LLC stage
500V CE, 600V C6, 600V P6
190mΩ … 950mΩ
DPAK, TO-220 FP
Non-isolated Buck
500V CE
1Ω ... 3Ω
DPAK
Applications
Lighting
AC/DC Power Conversion (Dual Stage PFC+LLC)
Application example - 110W LED driver with constant voltage output
22Ω
6
8
R30
0.82Ω
R31
0.82Ω
R15
470kΩ
C12
2.2nF
R24
10kΩ
ICL5101
PFCGD
HSGND
PFCVS
LSGD
PVCCS
4
3
9
10
LSCS
11 13
R27
330Ω
R26
6.2kΩ
R25
6.8kΩ
C13
1µF
22Ω
15
14
1
6.8kΩ
D14
1N4148
22Ω
2
Details
ICL5101*
AC/DC off-line LED Driver IC
IPD50R500CE
CoolMOS™ 500V CE for LLC stage
IPD60R950E6
CoolMOS™ 600V E6 for PFC stage
Q3
R18
10Ω
6 L /3 5
2
C3
470µF/
35V
X1
1
2
GNDA
IPD50R500CE
D10
1N4148
R14
39kΩ
R13
51Ω
VCC
R22
1.0Ω
R23
1.2Ω
R20
5.6Ω
C11
1µF/
50V
C28
100pF
R17
2.7kΩ
GNDA
D21
Q4
BCX70K
BA885
R38
3.3kΩ
D20
Key Features and Benefits of AC/DC Module
ZMM15
Highest efficiency of 94% at nominal load
GND
Very high power factor of 99%
Very low THD < 5% providing high margin to fulfill regulatory requirements
Both high efficiency and low THD also at light load condition
Low Bill of Material (BOM) due to
–– Combo IC combining PFC and LLC in one IC
–– Resistors can replace capacitors to adjust electrical parameters
Part Number
GND
D9
BYG20J R12
R32
GND
Q1
C5
100nF
2 L2/1 1
LVS
HSGD
HSVCC
5
C9
33µF
PFCZCD
C2
470µF/
35V
7 L /4 8
2
R7
820kΩ
C4
22nF/
630V
3 L2/2 4
R6
30kΩ Q2
R9
470kΩ R10
R5
16
RES
C7
D8
81M
5
C14
2.2nF/Y2
7 L1/2 4
D7
81M
IPD60R950E6
IPD50R500CE
RTPH
F1
2
+1
2x 47mH
7
RFRUN
330nF/X2 C5
R4
820kΩ
VCC
3
2
1
3 L3 +4
D4
GND
12
GND
X2
MBR820H200CT
D6
81M
220nF/X2
D5
81M
D2
MUR160
RFPH
L /1
2 1 2
1.6mH
C24
1µF
4
CK1
3
C20
1nF
R35
500Ω
1
C18
R39
220nF
47kΩ
2
8FH517A-3
IC2
TL431CLP
R43
6.2kΩ
C26
R42
33kΩ
2.2nF/Y1
GNDA
* coming Q2 2015
37
Lighting
DC/DC Power Conversion (60V DC/DC Buck Converter)
Application Example with ILD6070/6150 with constant current output
Key Features & Benefits
Wide input voltage from 4.5V – 60V
Scalable for an output current up to 1500mA due to
same footprint
–– Up to 700mA with ILD6070 in SO-8 exposed pad
–– From 700mA –1500mA with ILD6150 in SO-8
exposed pad
Provides both PWM or analog dimming options
High efficiency of up to 98%
Advanced thermal protection including
–– Current reduction in a slope enables the protection of
LED lifetime
–– Trigger point of thermal protection can be adjusted
–– No need for external NTC or PTC, thereby reducing
system cost
Evaluation boards available: EVALLED-ILD6150
DC/DC Power Conversion (40V DC/DC Buck Converter)
Application example with ILD4001 with constant current output
RSense
Supply
voltage
VSupply
ISense
GND
GND
Schottky Diode
e.g. BAS3020B
L
Analog voltage /
digital PWM signal
PWM/Enable
Iout
N-MOSFET
e.g. BSR302N
BSS306N
Key Features & Benefits
Wide input voltage from 4.5 - 40V
Thermal protection included
Coverage of wide current range from 10 - 3000mA
–– No external NTC required
–– Smooth reduction of LED current at high temperature level
Small SC-74 package
Cost can be optimized by selection of respective MOSFET
–– Low cost solution with BSR302
–– Lowest cost solution with BSS306
High efficiency up to 98%

38
Evaluation boards available: ILD4001 1A
Applications
Industrial Welding
Industrial Welding (MMA < 280A)
Innovative Solutions for Your Applications
In the field of Industrial Welding machines, discrete IGBTs are used in small inverterized 1-phase hand-held welders
from 120A to 200A and 3-phase welding machines with up to 300A Iout for industrial use. With the trend towards higher
switching frequency, Infineon’s portfolio perfectly supports customer requirements by offering 600V, 650V and 1200V
discrete IGBTs at an excellent performance/price point.
For 2015, the new WR5 series based on the TRENCHSTOP™ 5 technology will be released, specifically for the price
sensitive 1-phase welding machine market to offer a new benchmark in performance/price. The WR5 offers low
switching losses coupled with low conduction losses plus excellent Rg controllability to provide customers with
improved efficiency and outstanding thermal behavior.
Meanwhile for the Best-in-Class performance, where customers are striving for differentiation in the welding market,
the H5 series offers the highest efficiency for optimized designs. Excellent dynamic response of the H5 series enables
the arc-current to be reached in a shorter time contributing to better weld quality. Additionally, in-house application
tests have shown the case temperature of the H5 to be 20% lower than the next Best-in-Class competitor device.
For 3-phase welders, Infineon’s 1200V H3 family is the market’s preferred device, due to its outstanding efficiency
and controllability.
Full bridge / Half bridge
4x HighSpeed IGBT
Two Transistor Forward
2x HighSpeed IGBT
AC Output (Al/Mg welding)
Diode
IGBT
IGBT
Diode IOUT
IGBT
Diode
LOUT
Diode
VIN
IGBT
VIN
Diode
LOUT
Diode
IGBT
IGBT
IGBT
IOUT
Diode Diode
IGBT
Diode
Diode
Diode
Diode
IGBT
IGBT
IGBT
IGBT
PFC
Diode
IGBT
Diode
Diode
Industrial Welding
Topology
Voltage Class
Selection
DC/AC
Full bridge/half bridge/TTF
650V
WR5 TRENCHSTOP™ 5
Recommendation
Full bridge/half bridge
650V
TRENCHSTOP™ 5
Recommendation
Full bridge/half bridge/TTF
1200V
HighSpeed 3
Recommendation
650V
Rapid 1/Rapid 2
Recommendation
Boost converter/switch
650V
WR5 TRENCHSTOP™ 5
Recommendation
650V
TRENCHSTOP™ 5
Reference
1200V
HighSpeed 3
Reference
Boost converter/diode
650V
Rapid 1/Rapid 2
Recommendation
Half bridge single channel
600V/1200V
EiceDRIVER™ (1ED)
Efficiency
Half bridge dual channel
600V/1200V
EiceDRIVER™ (2ED)
Recommendation
Boost converter
650V
CoolSET™ F3
Recommendation
Boost converter
-
XMC1000
Flexibility
Up to 20V
IFX54211
Efficiency
AC/DC: PFC
IGBT Driver
Controller
39
Highest Performance in your Drives Application
Based on industry leading technology, the highest quality and manufacturing expertise, Infineon provides a variety
of innovative power semiconductors which enable designers to develop highly reliable and efficient solutions for all
kinds of drive applications.
Key enabling products
Low voltage power MOSFETs – OptiMOS™
Small Signal products
High voltage power MOSFETs – CoolMOS™
Gate drivers – EiceDRIVER™ Compact
Microcontrollers and supply – XMC and voltage regulators
Magnetic sensors
Infineon offers a comprehensive portfolio to address a broad range of Battery Powered Motor Control applications such
as Forklift, E-Scooter, Pedelecs, Low Speed Cars and many others. For further information please explore our homepage.
Infineon Solution Tree for Battery Powered Applications
Cordless Tools
Light Electric Vehicle
OptiMOS™ 20V-80V
MOSFET
Forklift
OptiMOS™ 60V-150V
Small Signal (SOT-363, TSOP-6)
Driver ICs
EiceDRIVER™ Compact (2EDL23N06)
EiceDRIVER™ Compact (2EDL05N06, 6EDL04N02PR, 6ED003L02-F2)
Microcontroller
XMC4000
XMC1000
Microcontroller
Supply
IFX1763, IFX54441
IFX54211
Magnetic Hall Sensors
Hall Sensors
Angle Sensors
Linear Hall Sensors
40
Applications
Typical Low Voltage Application: Battery Powered 3-Phase System
Power Management
Battery Management
CoolMOS™
DC/DC
Linear Voltage Regulators
OptiMOS™
Gate Driver
EiceDRIVER™
3-Phase Bridge Drive
Status
Indication
LED Drivers ≤ 60V
User
Interface
3-Phase
Inverter
M
OptiMOS™
XMC
Microcontroller
XMC1000
XMC4000
USB,
Serial COM &
Ethernet
Hall Switch
Linear Hall Sensors
Angle Sensors
Current Sensors
Current Sensing
Position Sensing
To shorten customer development cycle time and cost we offer a complete portfolio of low voltage motor control
application kits:
XMC1000 Motor Control
Application Kit
XMC4000 Motor Control
Application Kit
300W Motor Control
Application Kit
Evaluation Board
5kW TO-Leadless
1kW Motor Control
Application Kit
www.infineon.com/motorcontrolapplicationkit
www.infineon.com/to-leadless-evaluationboard
41
Leading-Edge Innovation, Outstanding Reliability and Excellent Quality
Infineon’s solutions for Light Electric Vehicles provide leading-edge innovation, outstanding reliability and excellent
quality. We offer the full range of semiconductor solutions – from low voltage power MOSFETs to Microcontrollers.
Key requirements for those applications like E-Bikes, Pedelecs, E-Scooters, Low Speed Cars, Forklifts, etc. are increasing
the range of the vehicle, increasing battery lifetime and reducing charging time. Infineon offers the right set of devices
for battery management and voltage regulation with highest possible efficiency. Besides power management, the power
consumption is effectively controlled by XMC controllers, EiceDRIVER™ gate drivers, OptiMOS™ low voltage MOSFETs.
Key Enabling Products for Light Electric Vehicles are:
Low voltage power MOSFETs – OptiMOS™
High voltage power MOSFETs – CoolMOS™
Gate drivers – EiceDRIVER™ Compact
Microcontrollers and supply – XMC and voltage regulators, DC/DC converters
Silicon Power Diodes – Rapid 1 and Rapid 2 Diode
Magnetic Sensors
Application Requirements
Efficiency: reduction of overall system energy consumption, increasing the battery lifetime
Reliability: reliable operation and avoiding system down time
Maintenance: low maintenance and long lifetime of components
Size and Cost: reduction of overall system size and cost
Time to market: reduction of development time and cost
Benefits of Infineon Components
Complete portfolio from one source
Increased lifetime due to Infineon reliability and quality
Smallest area for highest power density
BOM cost reduction due to lowest RDS(on)
Complete support infrastructure: simulations, documentation and demoboards
Power
MOSFETs
Microcontroller
42
Driver ICs
Magnetic
Sensors
Applications
Application Diagram of Infineon Solution for Inverter and Charger
Charger
CoolMOS™
OptiMOS™
Control ICs for PWM & PFC
DC/DC converters
Linear voltage regulators
Microcontroller
XMC4000 family
XMC1000 family
Charger
24V/36V/48V/72V
110V/230V
AC/DC
Battery
DC/DC
Gate Driver
EiceDRIVER™
3-Phase Bridge Drive
XMC
Microcontroller
XMC1000
XMC4000
User Interface
&
Communication
3-Phase
Inverter
M
OptiMOS™
USB,
Serial COM &
Ethernet
Sense &
Monitor
Current & Position Sensing
Angle sensors
Hall switches
Current sensor
Recommended Products for Inverter
Battery Voltage
Low Voltage MOSFETs
Standard Solution
High End Solutions
24V
IPD034N06N3 G
BSC028N06NS
36V
IPD053N08N3 G
BSC047N08NS3 G
48V
IPP045N10N3 G
IPB042N10N3 G
IPT020N10N3
2EDL05N06PF
Gate Driver - EiceDRIVER™
Microcontroller - XMC
XMC1302
XMC4400
Linear Voltage Regulator (IFX54211)
DC/DC Converter (IFX90121)
Linear Voltage Regulator (IFX1763, IFX54441)
DC/DC Converter (IFX90121, IFX91041)
Hall Switch (TLI496x)
Angle Sensor (TLE5009, TLE5012B)
Current & Position Sensors
Current Sensor (TLI4970)
Communication
IFX1050G
Recommended Products for LEV Charger
Battery Voltage
600V
High Voltage
MOSFETs
AC/DC (PFC)
IPP60R125P6
IPP60R160P6
IPP60R190P6
IPL60R180P6
650V
Low Voltage MOSFETs
Diodes
OptiMOS™ in TO-220, SuperSO8
or D²PAK
40V - 100V
650V
DC/DC (PWM)
IPP60R099C6
IPP60R125C6
IPP60R160C6
IPP60R190C6
IPP65R110CFD
IPP65R150CFD
IPL65R165CFD
IPP65R190CFD
IPL65R210CFD
Rapid Diodes in TO-220
43
Wireless Power
Wireless Power
Highest Efficiency for Wireless Charging
Now is the time when Wireless Power applications will enter the main stream. We will each have one or more
applications of Wireless Charging in our daily lives in the coming years, starting with battery charging of Mobile Devices.
That is on top of the electric toothbrush that seems to be around forever.
A typical wireless power transfer system consists of the AC/DC Adapter powering the charging station or mat, the
transmitter in the station or mat and the receiver which usually is highly integrated and embedded in the mobile device
or the back cover of a Smartphone.
Infineon’s CoolSET™ series continues to deliver design agility and miniaturization. For example the F3 series combines
a new feature-packed controller with the power of CoolMOS™ to give you the output power you desire. Alternatively
a stand-alone PWM IC (Fix Frequency or Quasi Resonant) can be combined with a discrete 600V/650V CoolMOS™ C6
available in different packages including DPAK, IPAK and the newest ThinPAK 5x6.
Especially for emerging higher power (10W+) transmitter applications equipping your half or full bridge with components
from the OptiMOS™ 30V product family with their ultralow gate and output charge, together with lowest on-state
resistance in small footprint packages will pay off with superior power transfer performance. There are Half Bridge
modules, dual N-Channel and single N-Channel OptiMOS™ versions available for your Wireless Power transmitter design.
AC
Supply
12~20V
Transmitter (Tx)
Coils
HB/FB Driver
CoolSET™
Digital Control
PWM+COM
44
2-4x LV MOS
OptiMOS™
AC/DC Adapter
Receiver (RX)
embedded in
mobile system
(eg: Smartphone)
AC/DC Adapter
Description
ICE3ARXX65JG
CoolSET™ F3 series with integrated switch for Fixed Frequency Flyback
ICE2QRXX65G
CoolSET™ F3 series with integrated switch for Quasi Resonant Flyback
ICE3BS03LJG
Stand-alone PWM IC for Fixed Frequency Flyback
ICE2QS03G
Stand-alone PWM IC for Quasi Resonant Flyback
IPL65R1K5C6S
650V CoolMOS™ MOSFET in ThinPAK 5x6
IPD65R1K4C6
650V CoolMOS™ MOSFET in DPAK
IPU60R1K4C6
600V CoolMOS™ MOSFET in IPAK
Transmitter
Description
XMC 1302 or XMC 4108
32-bit XMC Microcontroller (XMC 1302 for single standard, XMC 4108 for multi standard solution)
BSC0925ND
5x6 OptiMOS™ 30V/5mΩ half bridge Module SuperSO8
BSC150N03LDG
OptiMOS™ 3 Dual N-Channel, Logic Level, 30V/15mΩ SuperSO8
BSC072N03LDG
OptiMOS™ 3 Dual N-Channel, Logic Level, 30V/7.2mΩ SuperSO8
BSZ065N03LS
OptiMOS™ Power MOSFET, Logic Level, 30V/6.5mΩ S3O8
BSC0909NS
OptiMOS™ Power MOSFET, Logic Level, 34V/9.2mΩ SuperSO8
BSC120N03MSG
OptiMOS™ 3 Power MOSFET, Logic Level 5V opt., 30V/12mΩ SSO8
Application Support
Expert Support for Applications
Easy Access and High Quality
Block Diagrams, Documents, Videos, Evaluation Boards & More
www.infineon.com/smps
www.infineon.com/emobility
www.infineon.com/solar
www.infineon.com/industrial
www.infineon.com/consumer
www.infineon.com/lighting
www.infineon.com/motorcontrol
www.infineon.com/automation
Applications
45
OptiMOS™
OptiMOS™
Leading-Edge Solutions
Infineon’s innovative products serve the market needs throughout the whole energy supply chain. OptiMOS™ is the
market leader in highly efficient solutions for power generation (e.g. Solar Micro Inverter), Power Supply (e.g. Server
and Telecom) and power consumption (e.g. Electric Vehicle). In all these areas, engineers face the challenges of
growing power demand, increasing efficiency and lowering cost. At the same time, the available space is constantly
shrinking, leading to higher power density requirements.
The solution can be found with Infineon's power MOSFET OptiMOS™ family. From 20V up to 300V, OptiMOS™
consistently sets the benchmark in key specifications for power system design. Leading on-state resistance and Figure
of Merit characteristics enable reduced power losses and improved overall efficiency.
Lower power losses enable system cost improvement by reducing the need for device paralleling and allowing smaller
heatsinks. The OptiMOS™ family also provides the opportunity for more compact Power Supply designs.
Available in innovative space saving packages such as TO-Leadless, CanPAK™ , SuperSO8 or S3O8, power stage and Blade,
these products reduce area consumption. TO-Leadless for example, allows a 60% space reduction compared to D2PAK
7pin. In addition, TO-Leadless improves switching noise and EMI for SMPS, as well as for other industrial applications.
OptiMOS™ Products are Suitable for a Wide Range of Applications:
VR-modules for Server
Solar Micro Inverter and Maximum Power
Synchronous rectification for AC/DC SMPS
Point Tracker (MPPT)
DC/DC converters
LED Lighting
Motor Control 12V-110V systems
Notebook and Desktop
80
RDS(on) [mΩ] @ 10V in SuperSO8
RDS(on) [mΩ] @ 10V in SuperSO8
4
3
2
1
0
60
40
20
0
25
30
Infineon
40
Voltage Class [V]
60
Next Best Competitor
75
80
100
120
150
200
250
Voltage Class [V]
Infineon
Next Best Competitor
Demonstrating > 93% Efficiency in Voltage Regulation for Power Applications
With the new OptiMOS™ 25V and 30V product family, Infineon sets new standards in power density and Energy
Efficiency for discrete power MOSFETs and system in package. Ultra low gate and output charge, together with lowest
on-state resistance in small footprint packages, make OptiMOS™ 25V the best choice for the demanding requirements
of voltage regulator solutions in Servers, Datacom and Telecom applications. OptiMOS™ 30V products are tailored to
the needs of power management in Notebook by improved EMI behavior, as well as increased battery life.
46
LV – OptiMOS™
OptiMOS™
With the New OptiMOS™ Products, We Have the Best Solution to:
Save overall system costs by reducing the number of phases in multiphase converters
Reduce power losses and increase efficiency for all load conditions
Save space with the smallest packages such as CanPAK™, S3O8 or system-in-package solution
Minimize EMI in the system making external snubber networks obsolete and the products easy to design-in
Efficiency [%]
Efficiency of OptiMOS™ 25V in a Six-Phase Server VRD
96
94
92
90
88
86
84
82
80
78
76
74
72
70
Outstanding performance of the new OptiMOS™ 25V
and 30V products is exemplified on a six-phase Server
Vcore VRD. 93% peak efficiency and >90% full load
efficiency is demonstrated with the new OptiMOS™
25V products in SuperSO8 package.
(high side: BSC050NE2LS; low side: BSC010NE2LS)
Vin = 12V, Vout = 1.2V
Lout = 210nH, Vdrive = 5V
0
20
40
60
80
100
120
140
160
180
Output Current [A]
fswitch = 350kHz
fswitch = 500kHz
Clean Waveforms for Optimized EMI Behavior Make New OptiMOS™ 25V/30V Products Easy to Use
Voltage across Sync Fet [V]
17.5
15.0
Vin = 12V, Vdrive = 5V, Iout = 20V
12.5
10.5
7.5
5.0
2.5
With the new OptiMOS™ 25V/30V products short
switching times (rise and fall times <5ns) go in hand
with excellent EMI behavior. An integrated damping
network guarantees low over and undershoot and
minimizes ringing without sacrificing efficiency.
0
-2.5
-5.0
0
100
200
300
400
500
600
700
800
900
1000
Time [ns]
47
OptiMOS™ Packages
Always a Step Ahead with Infineon
With OptiMOS™ 40V-300V products, we set the benchmark in the industry. The leading on-state resistance (RDS(on)) and
switching behavior reduce power losses and enable overall efficiency of 96%. With these products Infineon supports
the market trend towards Energy Efficiency targets such as Energy Star Titanium Level. OptiMOS™ technology
enables for the first time very low RDS(on) values needed for high current applications in space saving packages such as
SuperSO8, S3O8 and CanPAK™ and TO-Leadless, which were previously only possible in bulky packages.
Efficiency
96
Using Infineon products in
Synchronous Rectification of a 600W
Server Power Supply with 12V
output brings your peak efficiency
0.3% higher.
95
Efficiency [%]
94
93
92
91
90
89
88
150
200
250
300
350
400
450
500
550
600
Output power [W]
Competitor
BSC016N06NS
TO-Leadless
TO-Leadless package is especially designed for high current applications
with high power and reliability requirements such as Forklift, Light Electric
Vehicles, e-fuse, PoL (Point of Load) and Telecom. The outstanding current
capability up to 300A is an ideal feature for these applications. Furthermore,
TO-Leadless offers benefits in terms of optimized board space. The
significantly smaller package size, reduced by 60%, enables a very compact
design. Compared to D2PAK 7pin, TO-Leadless shows a 30% reduction in
Optimized for
High Power Applications
footprint. This allows a board space reduction in Forklift applications and
the 50% reduced height offers a significant advantage in narrow applications
such as rack or blade Servers.
DrBlade™
The Revolutionary
Next Packaging Generation
48
DrBlade™ is the new ultra-compact integrated MOSFET half bridge with driver,
realized in a revolutionary new packaging technology. It is an ideal solution
for buck converter applications with highest efficiency and power density
requirements. The Blade packaging technology realizes a low package resistance
and inductance as well as high current handling capability. It replaces standard
packaging processes such as bonding or molding which provide a 30% package
footprint reduction. Additionally, the thermal resistances to the package bottom
and top side are optimized, improving its thermal behavior. The new packaging
technology is available in discrete products such as in the integrated DrBlade™
configuration including driver and MOSFETs.
OptiMOS™ Packages
In applications like Synchronous Rectification in Server and Desktop, Motor
Drives and DC/DC converters in Telecom, high power density and high
efficiency are the major driving factors. The trend set by Infineon to move
from TO-220 to SuperSO8 in Server reduces the area consumption drastically.
With three times lower resistance parasitic compared to TO-220, SuperSO8
offers highest efficiency and lowest design efforts due to reduced spikes.
LV – OptiMOS™
SuperSO8/S3O8
The Intelligent Way to Highest
Efficiency and Power Density
CanPAK™
The CanPAK™ portfolio is the best fit for a broad number of industrial
applications such as voltage regulator for Servers, DC/DC converters in
Telecom, Solar Micro Inverters and Maximum Power Point Trackers (MPPT),
low voltage drives and Synchronous Rectification in server and desktop. With
only a 31mm² footprint, CanPAK™ M allows 79% space reduction in power
components on the board compared to traditional D2PAK. In addition, the
metal ‘Can’ enables double-sided cooling along with almost no package
parasitic inductances, leading to a higher systems efficiency.
Best Thermal Behavior in
a Tiny Footprint
Power stage 3x3 and power stage 5x6
Dual FET power stages in a single leadless SMD package integrate the low
side and high side MOSFET of a synchronous DC/DC converter into a 3x3mm2
or 5x6mm2 package outline. Designers are able to shrink their designs up to
85% by replacing two separate discrete packages such as SO-8 or SuperSO8
with this new package. Both the small outline and the interconnection of the
two MOSFETs within the package minimize the loop inductance which boosts
efficiency. With the new OptiMOS™ technology, power stage 3x3 and power
stage 5x6 achieve a peak efficiency of 93.5%. Power stage 3x3 can handle an
application current up to 12.5A and power stage 5x6 up to 30A.
Save Space, Minimize Losses,
Boost Efficiency
Small Signal
Small Signal MOSFETs from Infineon are available in 7 industry-standard package
types ranging from the largest SOT-223 down to the smallest SOT-363 measuring
2.1mm x 2mm x 0.9mm. Products are offered in single, dual and complementary
configurations and are suitable for a wide range of applications including Battery
Protection, LED Lighting, low voltage drives and DC/DC converters. All Infineon
Small Signal packages are qualified to Automotive AEC Q101.
Automotive Qualified Packages
49
OptiMOS™ Product Table
OptiMOS™ 20V Super Logic Level
RDS(on) max
@VGS=4.5V
[mΩ]
TO-251 /
TO-251 SL
TO-252
(DPAK)
CanPAK™ S/M
TO-263
(D2PAK 7pin)
TO-220
TO-220 FullPAK
SuperSO8
SO-8
BSC019N02KS G
<2
RDS(on)= 1.9mΩ
BSC026N02KS G
2-4
RDS(on)=2.6mΩ
BSC046N02KS G
4-10
RDS(on)=4.6mΩ
OptiMOS™ 25V Logic Level
RDS(on) max
@VGS=10V
[mΩ]
<1.0
1-2
TO-251 /
TO-251 SL
TO-252
(DPAK)
CanPAK™ S/M
BSB008NE2LX
TO-263
(D2PAK 7pin)
TO-220
TO-220 FullPAK
SuperSO8
S3O8
BSC009NE2LS
RDS(on)= 0.8mΩ
RDS(on)=0.9mΩ
BSB012NE2LX
BSC010NE2LS
RDS(on)=1.2mΩ
RDS(on)=1.0mΩ
BSB012NE2LXI
BSC010NE2LSI
RDS(on)=1.2mΩ
RDS(on)=1.05mΩ
BSB013NE2LXI
BSC014NE2LSI
RDS(on)=1.3mΩ
RDS(on)=1.4mΩ
BSC018NE2LS
BSZ18NE2LS
RDS(on)=1.8mΩ
RDS(on)=1.8mΩ
BSC018NE2LSI
BSZ018NE2LSI
RDS(on)=1.8mΩ
RDS(on)=1.8mΩ
BSC024NE2LS
RDS(on)=2.4mΩ
2-4
BSF030NE2LQ 1)
BSC032NE2LS
RDS(on)=3.0mΩ
RDS(on)=3.2mΩ
BSF035NE2LQ 1)
RDS(on)=3.5mΩ
4-6
BSZ036NE2LS
RDS(on)=3.6mΩ
BSC050NE2LS
RDS(on)=5.0mΩ
BSZ060NE2LS
RDS(on)=6.0mΩ
6-7
1)
50
CanPAK™ S
LV – OptiMOS™
OptiMOS™ 25/30V in power stage 3x3 and 5x6
Part Number
Monolithically
integrated Schottky
like diode
BVDSS (V)
RDS(on)max. [mΩ] @ VGS=4.5V max
Qg [nC] @ VGS=4.5V typ
High Side
Low Side
High Side
Low Side
BSC0910NDI

25
5.9
1.6
7.7
25.0
BSC0911ND
–
25
4.8
1.7
7.7
25.0
BSC0921NDI

30
7.0
2.1
5.8
21.0
BSC0923NDI

30
7.0
3.7
5.2
12.2
BSC0924NDI

30
7.0
5.2
5.2
8.6
BSC0925ND
–
30
6.4
6.4
5.2
6.7
BSG0811ND
-
25
4
1.1
5.6
20
BSG0813NDI

25
4
1.7
5.6
12
51
RDS(on) max
@VGS=10V
[mΩ]
TO-251 / TO251 SL
TO-252
(DPAK)
CanPAK™ M
TO-Leadless
TO-263
(D2PAK)
TO-263
(D2PAK 7pin)
TO-220
SuperSO8
S3O8
Bare Die
(RDS(on) typ.)
BSB012N03LX3 G IPT004N03L
IPB009N03L G
BSC011N03LS
IPC218N03L3
RDS(on)=1.2mΩ
RDS(on)=0.95mΩ
RDS(on)=1.1mΩ
RDS(on)=0.5mΩ
RDS(on)=0.4mΩ
BSC011N03LSI
RDS(on)=1.1mΩ
BSC014N03LS G
RDS(on)=1.4mΩ
1-2
BSB017N03LX3 G
BSC016N03LS G BSZ019N03LS
IPC055N03L3
RDS(on)=1.7mΩ
RDS(on)=1.6mΩ
RDS(on)=1.7mΩ
RDS(on)=1.9mΩ
BSC0901NS
RDS(on)=1.9mΩ
BSC0901NSI
BSZ0901NS
RDS(on)=2.0mΩ
RDS(on)=2.0mΩ
BSC020N03LS G BSZ0901NSI
IPC042N03L3
RDS(on)=2.0mΩ
RDS(on)=2.3mΩ
RDS(on)=2.1mΩ
BSC025N03LS G
RDS(on)=2.5mΩ
2-4
BSC0902NS
BSZ0902NS
RDS(on)=2.6mΩ
RDS(on)=2.6mΩ
BSC0902NSI
BSZ0902NSI
RDS(on)=2.8mΩ
RDS(on)=2.8mΩ
IPS031N03L G
IPD031N03L G
IPB034N03L G
IPP034N03L G
BSC030N03LS G BSZ035N03LS G
RDS(on)=3.1mΩ
RDS(on)=3.1mΩ
RDS(on)=3.4mΩ
RDS(on)=3.4mΩ
RDS(on)=3.0mΩ
RDS(on)=3.5mΩ
BSC034N03LS G
RDS(on)=3.4mΩ
BSC0904NSI
RDS(on)=3.7mΩ
IPS040N03L G
IPD040N03L G
IPB042N03L G
IPP042N03L G
BSC042N03LS G BSZ0904NSI
RDS(on)=4.0mΩ
RDS(on)=4.0mΩ
RDS(on)=4.2mΩ
RDS(on)=4.2mΩ
RDS(on)=4.2mΩ
RDS(on)=4.0mΩ
BSC0906NS
RDS(on)=4.5mΩ
4-6
IPS050N03L G
IPD050N03L G
RDS(on)=5.0mΩ
RDS(on)=5.0mΩ
BSC050N03LS G BSZ050N03LS G IPC028N03L3
RDS(on)=5.0mΩ
RDS(on)=5.0mΩ
RDS(on)=5.0mΩ
IPB055N03L G
IPP055N03L G
BSC052N03LS
IPC022N03L3
RDS(on)=5.5mΩ
RDS(on)=5.5mΩ
RDS(on)=5.2mΩ
RDS(on)=5.3mΩ
RDS(on)=5.7mΩ
6-8
RDS(on)=5.8mΩ
IPS060N03L G
IPD060N03L G
IPB065N03L G
BSZ065N03LS
RDS(on)=6.0mΩ
RDS(on)=6.0mΩ
RDS(on)=6.5mΩ
RDS(on)=6.5mΩ
IPS075N03L G
IPD075N03L G
IPB080N03L G
RDS(on)=7.5mΩ
RDS(on)=7.5mΩ
RDS(on)=8.0mΩ
RDS(on)=8.0mΩ
8-10
IPS090N03L G
IPD090N03L G
RDS(on)=9.0mΩ
RDS(on)=9.0mΩ
RDS(on)=8.8mΩ
BSC090N03LS G
RDS(on)=9.0mΩ
BSC0909NS
RDS(on)=9.2mΩ
BSZ100N03LS G
RDS(on)=10.0mΩ
BSC120N03LS G BSZ0909NS
10-15
2 x 7.2
2 x 15
50
52
RDS(on)=12.0mΩ
RDS(on)=12.0mΩ
IPD135N03L G
BSZ130N03LS G
RDS(on)=13.5mΩ
RDS(on)=13.0mΩ
BSC072N03LD G
RDS(on)=7.2mΩ
BSC150N03LD G
RDS(on)=15.0mΩ
IPC014N03L3
RDS(on)=50.0mΩ
LV – OptiMOS™
OptiMOS™ 30V Logic Level 5V Optimized
RDS(on) max
@VGS=10V
[mΩ]
TO-251 /
TO-251 SL
TO-252
(DPAK)
TO-263
(D2PAK)
TO-263
(D2PAK 7pin)
TO-220
TO-220
FullPAK
SuperSO8
S3O8
SO-8
BSC014N03MS G
<2
RDS(on)=1.4mΩ
BSC016N03MS G
RDS(on)=1.6mΩ
BSC020N03MS G BSZ035N03MS G BSO033N03MS G
RDS(on)=2.0mΩ
RDS(on)=3.5mΩ
RDS(on)=3.3mΩ
BSC025N03MS G
BSO040N03MS G
RDS(on)=2.5mΩ
RDS(on)=4.0mΩ
BSC030N03MS G
2-6
RDS(on)=3.0mΩ
BSC042N03MS G
BSZ050N03MS G
RDS(on)=4.2mΩ
RDS(on)=5.0mΩ
BSC050N03MS G
BSZ058N03MS G
RDS(on)=5.0mΩ
RDS(on)=5.8mΩ
BSC057N03MS G
RDS(on)=5.7mΩ
6-10
BSC080N03MS G BSZ088N03MS G
RDS(on)=8.0mΩ
RDS(on)=8.8mΩ
BSC090N03MS G
RDS(on)=9.0mΩ
BSC100N03MS G BSZ100N03MS G BSO110N03MS G
10-20
RDS(on)=10.0mΩ
RDS(on)=10.0mΩ
RDS(on)=11.0mΩ
BSC120N03MS G BSZ130N03MS G
RDS(on)=12.0mΩ
RDS(on)=13.0mΩ
>20
2x15
2x22
BSO150N03MD G
RDS(on)=15.0mΩ
BSO220N03MD G
RDS(on)=22.0mΩ
53
OptiMOS™ 40V Logic Level/Normal Level
RDS(on) max
@VGS=10V
[mΩ]
TO-252
(DPAK)
CanPAK™
S/M
TO-263
(D2PAK)
TO-263
(D2PAK 7pin)
TO-220
TO-220 FullPAK
SuperSO8
S3O8
Bare Die
(RDS(on) typ.)
BSC010N04LS
RDS(on)=1.0mΩ
BSC010N04LSI
RDS(on)=1.05mΩ
BSC014N04LS
RDS(on)=1.4mΩ
BSC014N04LSI
RDS(on)=1.45mΩ
BSB014N04LX3 G
<2
IPB015N04N G
IPB011N04L G
IPP015N04N G
RDS(on)=1.5mΩ
BSC016N04LS G
RDS(on)=1.4mΩ
RDS(on)=1.5mΩ
RDS(on)=1.1mΩ
BSB015N04NX3 G
IPB015N04L G
IPB011N04N G
BSC017N04NS G
RDS(on)=1.6mΩ
RDS(on)=1.5mΩ
RDS(on)=1.5mΩ
RDS(on)=1.1mΩ
RDS(on)=1.7mΩ
BSC018N04LS G
IPC218N04N3
RDS(on)=1.8mΩ
RDS(on)=0.5mΩ
BSC019N04NS G
IPC171N04N
RDS(on)=1.9mΩ
RDS(on)=1.1mΩ
BSC019N04LS
RDS(on)=1.4mΩ
2-3
IPB020N04N G
IPP023N04N G
BSC022N04LS
BSZ023N04LS
RDS(on)=2.0mΩ
RDS(on)=2.3mΩ
RDS(on)=2.2mΩ
RDS(on)=2.3mΩ
IPB023N04N G
BSC026N04LS
BSZ028N04LS
RDS(on)=2.3mΩ
RDS(on)=2.6mΩ
RDS(on)=2.8mΩ
BSC027N04LS G
RDS(on)=2.7mΩ
BSC030N04NS G
RDS(on)=3.0mΩ
3-4
4-7
IPD036N04L G
IPP039N04L G
BSC032N04LS
BSZ034N04LS
RDS(on)=3.6mΩ
RDS(on)=3.9mΩ
RDS(on)=3.2mΩ
RDS(on)=3.4mΩ
BSC035N04LS G
BSZ040N04LS G
RDS(on)=3.5mΩ
RDS(on)=4.0mΩ
IPP041N04N G
BSC050N04LS G
BSZ042N04NS G
RDS(on)=4.1mΩ
RDS(on)=5.0mΩ
RDS(on)=4.2mΩ
IPP048N04N G
BSC054N04NS G
RDS(on)=4.8mΩ
RDS(on)=5.4mΩ
BSC059N04LS G
RDS(on)=5.9mΩ
7-8
8-10
10-11
BSC093N04LS G
RDS(on)=9.3mΩ
BSZ097N04LS G
RDS(on)=9.7mΩ
BSZ105N04NS G
RDS(on)=10.5mΩ
BSZ165N04NS G
13-17
54
RDS(on)=16.5mΩ
OptiMOS™ 60V Logic Level/Normal Level
RDS(on) max
@VGS=10V
[mΩ]
TO-252
(DPAK)
CanPAK™
S/M
TO-Leadless
TO-262
(I2PAK)
TO-263
(D2PAK)
TO-263
(D2PAK 7pin)
TO-220
TO-220
FullPAK
SuperSO8
IPD025N06N 2)
BSB028N06NN3 G IPT007N06N 2)
IPI020N06N 2)
IPB019N06L3 G
IPB010N06N 2)
IPP020N06N 2)
IPA029N06N 2)
BSC014N06NS 2)
RDS(on)=2.5mΩ
RDS(on)=2.8mΩ
RDS(on)=2.0mΩ
RDS(on)=1.9mΩ
RDS(on)=1.0mΩ
RDS(on)=2.0mΩ
RDS(on)=2.9mΩ
RDS(on)=1.4mΩ
<3
RDS(on)=0.7mΩ
Bare Die
(RDS(on) typ.)
IPI024N06N3 G
IPB014N06N 2)
IPP024N06N3 G
BSC016N06NS 2)
IPC218N06L3
RDS(on)=2.4mΩ
RDS(on)=1.4mΩ
RDS(on)=2.4mΩ
RDS(on)=1.6mΩ
RDS(on)=1.2mΩ
IPI029N06N 2)
IPB026N06N 2)
IPB016N06L3 G
IPP029N06N 2)
BSC028N06NS 2)
IPC218N06N3
RDS(on)=2.9mΩ
RDS(on)=2.6mΩ
RDS(on)=1.6mΩ
RDS(on)=2.9mΩ
RDS(on)=2.8mΩ
RDS(on)=1.3mΩ
IPB029N06N3 G
IPB017N06N3 G
BSC028N06LS3 G
RDS(on)=2.9mΩ
RDS(on)=1.7mΩ
RDS(on)=2.8mΩ
IPD031N06L3 G
IPI032N06N3 G
IPB034N06L3 G
RDS(on)=3.1mΩ
RDS(on)=3.2mΩ
IPD034N06N3 G
RDS(on)=3.4mΩ
3-5
S3O8
IPP032N06N3 G
IPA032N06N3 G
BSC031N06NS3 G BSZ042N06NS 2)
RDS(on)=3.4mΩ
RDS(on)=3.2mΩ
RDS(on)=3.2mΩ
RDS(on)=3.1mΩ
IPB037N06N3 G
IPP037N06L3 G
IPA040N06N 2)
BSC034N06NS2)
RDS(on)=3.7mΩ
RDS(on)=3.7mΩ
RDS(on)=4.0mΩ
RDS(on)=3.4mΩ
IPI040N06N3 G
IPP040N06N 2)
BSC039N06NS 2)
RDS(on)=4.0mΩ
RDS(on)=4.0mΩ
RDS(on)=3.9mΩ
IPD038N06N3 G
IPP040N06N3 G
RDS(on)=3.8mΩ
RDS(on)=4.0mΩ
RDS(on)=4.2mΩ
IPD048N06L3 G
RDS(on)=4.8mΩ
IPD053N06N 2)
RDS(on)=5.3mΩ
5-7
IPP052N06L3 G
IPA057N06N3 G
BSC066N06NS2)
RDS(on)=6.6mΩ
RDS(on)=5.2mΩ
RDS(on)=5.7mΩ
IPB057N06N 2)
IPP057N06N3 G
IPA060N06N 2)
BSC067N06LS3 G
BSZ067N06LS3 G
RDS(on)=5.7mΩ
RDS(on)=5.7mΩ
RDS(on)=6.0mΩ
RDS(on)=6.7mΩ
RDS(on)=6.7mΩ
BSZ068N06NS2)
IPP060N06N 2)
RDS(on)=6.0mΩ
7-10
IPD079N06L3 G
IPI084N06L3 G
IPB081N06L3 G
RDS(on)=7.9mΩ
RDS(on)=8.4mΩ
RDS(on)=6.8mΩ
IPP084N06L3 G
IPA093N06N3 G
BSC076N06NS3 G BSZ076N06NS3 G
RDS(on)=9.3mΩ
RDS(on)=7.6mΩ
RDS(on)=8.1mΩ
RDS(on)=8.4mΩ
IPD088N06N3 G
IPB090N06N3 G
IPP093N06N3 G
BSC097N06NS 2)
BSZ100N06LS3 G
RDS(on)=8.8mΩ
RDS(on)=9.0mΩ
RDS(on)=9.3mΩ
RDS(on)=9.7mΩ
RDS(on)=10.0mΩ
BSC100N06LS3 G
BSZ100N06NS 2)
RDS(on)=10.0mΩ
RDS(on)=10.0mΩ
11-30
RDS(on)=7.6mΩ
BSF110N06NT3 G1)
RDS(on)=11.0mΩ
RDS(on)=11.0mΩ
RDS(on)=11.0mΩ
IPD350N06L G
RDS(on)=35.0mΩ
30-50
IPD400N06N G
RDS(on)=40.0mΩ
IPD640N06L G
RDS(ON = 64.0mΩ
1)
2)
CanPAK™ S
6V rated (RDS(on) also specified @ VGS=6V)
55
LV – OptiMOS™
OptiMOS™ 75V Normal Level
RDS(on) max
@VGS=10V
[mΩ]
TO-252
(DPAK)
CanPAK™
S/M
TO-262
(I2PAK)
TO-263
(D2PAK)
2-4
4-6
TO-263
(D2PAK 7pin)
TO-220
TO-220
FullPAK
SuperSO8
S3O8
Bare Die
(RDS(on) typ.)
IPB020NE7N3 G
IPP023NE7N3 G
BSC036NE7NS3 G
IPC302NE7N3
RDS(on)=2.0mΩ
RDS(on)=2.3mΩ
RDS(on)=3.6mΩ
RDS(on)=1.2mΩ
IPB031NE7N3 G
IPP034NE7N3 G
RDS(on)=3.1mΩ
RDS(on)=3.4mΩ
IPB049NE7N3 G
IPP052NE7N3 G
BSC042NE7NS3 G
RDS(on)=4.9mΩ
RDS(on)=5.2mΩ
RDS(on)=4.2mΩ
IPP062NE7N3 G
6-12
RDS(on)=6.2mΩ
BSF450NE7NH3 1)
12-45
RDS(on)=45.0mΩ
OptiMOS™ 80V Normal Level 2)
RDS(on) max
@VGS=10V
[mΩ]
TO-252
(DPAK)
CanPAK™
S/M
TO-Leadless
TO-262
(I2PAK)
TO-263
(D2PAK 7pin)
TO-220
TO-220
FullPAK
SuperSO8
IPT012N08N5
IPB017N08N5
IPB015N08N5
IPP020N08N5
RDS(on)=1.2mΩ
RDS(on)=1.7mΩ
RDS(on)=1.5mΩ
RDS(on)=2.0mΩ
IPB025N08N3 G
IPB019N08N3 G
IPP023N08N5
IPA028N08N3 G
BSC026N08NS5
RDS(on)=2.5mΩ
RDS(on)=1.9mΩ
RDS(on)=2.3mΩ
RDS(on)=2.8mΩ
RDS(on)=2.6mΩ
1-3
3-4
TO-263
(D2PAK)
RDS(on)=1.2mΩ
IPP027N08N5
BSC030N08NS5
RDS(on)=2.0mΩ
RDS(on)=2.7mΩ
RDS(on)=3.0mΩ
IPP028N08N3 G
RDS(on)=2.4mΩ
RDS(on)=2.8mΩ
IPI037N08N3 G
IPB031N08N5
IPB030N08N3 G
IPP034N08N5
IPA037N08N3 G
BSC037N08NS5
RDS(on)=3.7mΩ
RDS(on)=3.1mΩ
RDS(on)=3.0mΩ
RDS(on)=3.4mΩ
RDS(on)=3.7mΩ
RDS(on)=3.7mΩ
IPB035N08N3 G
IPP037N08N3 G
BSC040N08NS5
RDS(on)=3.5mΩ
RDS(on)=3.7mΩ
RDS(on)=4.0mΩ
IPD053N08N3 G
BSB044N08NN3 G
IPB049N08N5
IPP052N08N5
IPA057N08N3 G
BSC047N08NS3 G
RDS(on)=5.3mΩ
RDS(on)=4.4mΩ
RDS(on)=4.9mΩ
RDS(on)=5.2mΩ
RDS(on)=5.7mΩ
RDS(on)=4.7mΩ
4-6
IPB054N08N3 G
IPP057N08N3 G
BSC052N08NS5
RDS(on)=5.4mΩ
RDS(on)=5.7mΩ
RDS(on)=5.2mΩ
BSC057N08NS3 G
RDS(on)=5.7mΩ
BSC061N08NS5
RDS(on)=6.1mΩ
IPB067N08N3 G
6-7
7-11
BSC072N08NS5
RDS(on)=6.7mΩ
RDS(on)=7.2mΩ
IPD096N08N3 G
BSB104N08NP3
IPP100N08N3 G
IPA100N08N3 G
BSC117N08NS5
BSZ075N08NS5
RDS(on)=9.6mΩ
RDS(on)=10.4mΩ
RDS(on)=9.7mΩ
RDS(on)=10.0mΩ
RDS(on)=11.7mΩ
RDS(on)=7.5mΩ
BSZ084N08NS5
RDS(on)=8.4mΩ
BSZ110N08NS5
11-20
RDS(on)=11.0mΩ
IPD135N08N3 G
RDS(on)=13.5mΩ
30-40
1)
2)
56
CanPAK™ S
6V rated (RDS(on) also specified @ VGS = 6V)
Bare Die
(RDS(on) typ.)
IPC302N08N3
IPB020N08N5
IPB024N08N5
S3O8
RDS(on)=12.3mΩ
RDS(on)=12.3mΩ
RDS(on)=34.0mΩ
RDS(on)=34.0mΩ
LV – OptiMOS™
RDS(on) max
@VGS=10V
[mΩ]
TO-252
(DPAK)
CanPAK™ S/M
1-3
TO-Leadless
TO-262
(I2PAK)
TO-263
(D2PAK)
TO-220
TO-220
FullPAK
SuperSO8
S3O8
Bare Die
(RDS(on) typ.)
IPT015N10N5 2)
IPB020N10N5 2)
IPB017N10N5 2)
IPP023N10N5 2)
IPC302N10N3
RDS(on)=1.5mΩ
RDS(on)=2.0mΩ
RDS(on)=1.7mΩ
RDS(on)=3.0mΩ
RDS(on)=1.7mΩ
IPT020N10N3 2)
IPI030N10N3 G
IPB027N10N3 G
IPB025N10N3 G
IPP030N10N3 G
IPA030N10N3 G
RDS(on)=2.0mΩ
RDS(on)=3.0mΩ
RDS(on)=2.7mΩ
RDS(on)=2.5mΩ
RDS(on)=3.0mΩ
RDS(on)=3.0mΩ
IPB027N10N5 2)
IPP030N10N5 2)
RDS(on)=2.7mΩ
RDS(on)=3.0mΩ
3-4
4-6
TO-263
(D2PAK 7pin)
BSC035N10NS5 2)
IPC26N10NR
RDS(on)=3.5mΩ
RDS(on)=3.2mΩ
IPB039N10N3 G
BSC041N10NS5 2)
IPC173N10N3
RDS(on)=3.9mΩ
RDS(on)=4.1mΩ
RDS(on)=3.6mΩ
BSB056N10NN3 G
IPI045N10N3 G
IPB042N10N3 G
IPP045N10N3 G
IPA045N10N3 G
BSC046N10NS3 G
RDS(on)=5.6mΩ
RDS(on)=4.5mΩ
RDS(on)=4.2mΩ
RDS(on)=4.5mΩ
RDS(on)=4.5mΩ
RDS(on)=4.6mΩ
IPD068N10N3 G
IPI072N10N3 G
RDS(on)=6.8mΩ
RDS(on)=7.2mΩ
BSC060N10NS3 G
RDS(on)=6.0mΩ
6-8
IPP072N10N3 G
BSC070N10NS3 G
RDS(on)=7.2mΩ
RDS(on)=7.0mΩ
BSC070N10NS5 2)
RDS(on)=7.0mΩ
IPD082N10N3 G
IPI086N10N3 G
IPB083N10N3 G
IPP083N10N5 2)
RDS(on)=8.2mΩ
RDS(on)=8.6mΩ
RDS(on)=8.3mΩ
RDS(on)=8.3mΩ
IPA083N10N5 2)
RDS(on)=8.3mΩ
IPA086N10N3 G
RDS(on)=8.6mΩ
8-12
BSC098N10NS5 2)
RDS(on)=9.8mΩ
IPP086N10N3 G
BSC109N10NS3 G BSZ097N10NS5 2)
RDS(on)=8.6mΩ
RDS(on)=10.9mΩ
RDS(on)=9.7mΩ
BSC118N10NS G
RDS(on)=11.8mΩ
12-18
IPD122N10N3 G
BSF134N10NJ3 G 1)
IPB123N10N3 G
IPP126N10N3 G
IPA126N10N3 G
BSZ160N10NS3 G
RDS(on)=12.2mΩ
RDS(on)=13.4mΩ
RDS(on)=12.3mΩ
RDS(on)=12.6mΩ
RDS(on)=12.6mΩ
RDS(on)=16.0mΩ
BSC160N10NS3 G
RDS(on)=16.0mΩ
18-20
IPD180N10N3 G
IPI180N10N3 G
IPP180N10N3 G
IPA180N10N3 G
BSC196N10NS G
RDS(on)=18.0mΩ
RDS(on)=18.0mΩ
RDS(on)=18.0mΩ
RDS(on)=18.0mΩ
RDS(on)=19.6mΩ
IPD25CN10N G 2)
20-40
RDS(on)=25.0mΩ
IPD33CN10N G 1)
RDS(on)=33.0mΩ
40-80
RDS(on)=44.0mΩ
RDS(on)=44.0mΩ
IPD78CN10N G 1)
RDS(on)=78.0mΩ
BSC750N10ND G
2 x 75
1)
2)
RDS(on)=75.0mΩ
CanPAK™ S
6V rated (RDS(on) also specified @ VGS = 6V)
57
RDS(on) max
@VGS=10V
[mΩ]
TO-251 /
TO-251 SL
TO-252
(DPAK)
CanPAK™ M CanPAK™ S
TO-262
(I2PAK)
TO-263
(D2PAK)
TO-263
(D2PAK
7pin)
TO-220
TO-220
FullPAK
SuperSO8
S3O8
Bare Die
(RDS(on) typ.)
4-6
6-8
BSC082N10LS G
RDS(on)=8.2mΩ
BSC105N10LSF G
8-12
RDS(on)=10.5mΩ
IPP12CN10L G
RDS(on)=12.0mΩ
BSC123N10LS G BSZ150N10LS3 IPC045010N3
RDS(on)=12.3mΩ
12-18
RDS(on)=15.0mΩ
RDS(on)=15.2mΩ
IPC020N10L3
RDS(on)=42.0mΩ
20-40
BSC265N10LSF G
RDS(on)=26.5mΩ
RDS(on) max
@VGS=10V
[mΩ]
TO-251 /
TO-251 SL
TO-252
(DPAK)
TO-262
(I2PAK)
<4
TO-263
(D2PAK)
IPB038N12N3 G
IPB036N12N3 G
RDS(on)=3.8mΩ
RDS(on)=3.6mΩ
IPI041N12N3 G
RDS(on)=4.1mΩ
4-5
TO-263
(D2PAK 7pin)
TO-220
SuperSO8
S3O8
Bare Die
(RDS(on) typ.)
IPC302N12N3
RDS(on)=2.6mΩ
IPP041N12N3 G
IPC26N12N
RDS(on)=4.1mΩ
RDS(on)=3.0mΩ
IPP048N12N3 G
RDS(on)=4.8mΩ
7-8
10-13
13-20
20-25
58
IPS110N12N3 G
IPD110N12N3 G
RDS(on)=11.0mΩ
RDS(on)=11.0mΩ
IPI076N12N3 G
IPP076N12N3 G
BSC077N12NS3 G
RDS(on)=7.6mΩ
RDS(on)=7.6mΩ
RDS(on)=7.7mΩ
IPP114N12N3 G
RDS(on)=11.4mΩ
IPI147N12N3 G
IPB144N12N3 G
IPP147N12N3 G
BSC190N12NS3 G
RDS(on)=14.7mΩ
RDS(on)=14.4mΩ
RDS(on)=14.7mΩ
RDS(on)=19.0mΩ
BSZ240N12NS3 G
IPC300N15N3R
RDS(on)=24.0mΩ
RDS(on)=4.9mΩ
LV – OptiMOS™
OptiMOS™ 150V Normal Level 4)
RDS(on) max
@VGS=10V
[mΩ]
TO-252
(DPAK)
CanPAK™ M
3-7
TO-Leadless
TO-262
(I2PAK)
TO-220
TO-220
FullPAK
SuperSO8
S3O8
Bare Die
(RDS(on) typ.)
IPT039N15N53)
IPI046N15N53)
IPB043N15N53)
IPB040N15N53)
IPP046N15N53)
IPC302N15N3
RDS(on)=4.6mΩ
RDS(on)=4.3mΩ
RDS(on)=4.0mΩ
RDS(on)=4.6mΩ
RDS(on)=4.9mΩ
IPB065N15N53)
IPB065N15N3 G
RDS(on)=5.9mΩ
RDS(on)=6.5mΩ RDS(on)=6.5mΩ
IPI069N15N53)
IPB072N15N3 G
IPP068N15N53)
IPA075N15N3 G
RDS(on)=6.5mΩ
BSC093N15NS53)
RDS(on)=6.9mΩ
RDS(on)=7.2mΩ
RDS(on)=6.8mΩ
IPI075N15N3 G
IPB108N15N3 G
IPP075N15N3 G IPA105N15N3 G
BSC110N15NS53)
RDS(on)=7.5mΩ
RDS(on)=10.8mΩ
RDS(on)=7.5mΩ
RDS(on)=11mΩ
IPI111N15N3 G
RDS(on)=11.1mΩ
IPD200N15N3 G BSB165N15NZ3 G
IPB200N15N3 G
IPP200N15N3 G
RDS(on)=20.0mΩ
RDS(on)=20.0mΩ
RDS(on)=20.0mΩ
RDS(on)=16.5mΩ
RDS(on)=10.5mΩ
RDS(on)=9.3mΩ
IPP111N15N3 G
RDS(on)=11.1mΩ
16-30
TO-263
(D2PAK 7pin)
RDS(on)=3.9mΩ
IPT059N15N3
7-12
TO-263
(D2PAK)
BSC160N15NS53) BSZ300N15NS53)
RDS(on)=16.0mΩ
RDS(on)=30mΩ
BSC190N15NS3 G
BSB280N15NZ3 G
RDS(on)=28.0mΩ
RDS(on)=19.0mΩ
BSC360N15NS3 G
30-60
RDS(on)=36.0mΩ
IPD530N15N3 G
IPI530N15N3 G
IPB530N15N3 G
IPP530N15N3 G
RDS(on)=53.0mΩ
RDS(on)=53.0mΩ
RDS(on)=53.0mΩ
RDS(on)=53.0mΩ
RDS(on)=52.0mΩ
80-90
3)
4)
RDS(on)=52.0mΩ
BSZ900N15NS3 G
RDS(on)=90.0mΩ
In development
8V rated (RDS(on) also specified @ VGS=8V)
59
RDS(on) max
@VGS=10V
[mΩ]
TO-252
(DPAK)
TO-262
(I2PAK)
TO-263
(D2PAK)
TO-263
(D2PAK 7pin)
TO-220
TO-220 FullPAK
SuperSO8
S3O8
Bare Die
(RDS(on) typ.)
IPC300N20N3
RDS(on)=9.2mΩ
IPI110N20N3 G
RDS(on)=11.0mΩ
10-20
30-40
IPB107N20N3 G
IPP110N20N3 G
IPC302N20N3
RDS(on)=9.2mΩ
RDS(on)=10.7mΩ
RDS(on)=11.0mΩ
IPB107N20NA 5)
IPP110N20NA 5)
RDS(on)=10.7mΩ
RDS(on)=11.0mΩ
IPB117N20NFD
IPP120N20NFD
RDS(on)=11.7mΩ
RDS(on)=12.0mΩ
IPD320N20N3 G
IPI320N20N3 G
IPB320N20N3 G
IPP320N20N3 G
BSC320N20NS3 G
RDS(on)=32.0mΩ
RDS(on)=32.0mΩ
RDS(on)=32.0mΩ
RDS(on)=32.0mΩ
RDS(on)=32.0mΩ
BSC500N20NS3G
40-50
RDS(on)=50.0mΩ
80-100
100-200
200-300
BSC900N20NS3 G
BSZ900N20NS3 G
RDS(on)=90.0mΩ
RDS(on)=90.0mΩ
BSC12DN20NS3 G
BSZ12DN20NS3 G
RDS(on)=125.0mΩ
RDS(on)=125.0mΩ
BSC22DN20NS3 G
BSZ22DN20NS3 G
RDS(on)=225.0mΩ
RDS(on)=225.0mΩ
RDS(on) max
@VGS=10V
[mΩ]
TO-252
(DPAK)
TO-262
(I2PAK)
TO-263
(D2PAK)
TO-263
(D2PAK 7pin)
TO-220
TO-220 FullPAK
SuperSO8
S3O8
IPC302N25N3A 5)
10-20
RDS(on)=16.0mΩ
20-30
IPI200N25N3 G
IPB200N25N3 G
IPP200N25N3 G
IPC045N25N3
RDS(on)=20.0mΩ
RDS(on)=20.0mΩ
RDS(on)=20.0mΩ
RDS(on)=25.0mΩ
IPP220N25NFD
RDS(on)=22.0mΩ
60-70
IPD600N25N3 G
IPI600N25N3 G
IPB600N25N3 G
IPP600N25N3 G
BSC600N25NS3 G
RDS(on)=60.0mΩ
RDS(on)=60.0mΩ
RDS(on)=60.0mΩ
RDS(on)=60.0mΩ
RDS(on)=60.0mΩ
100-200
400-500
5)
60
Bare Die
(RDS(on) typ.)
Part qualified according to AEC Q101
BSC16DN25NS3 G
BSZ16DN25NS3 G
RDS(on)=165.0mΩ
RDS(on)=165.0mΩ
BSZ42DN25NS3 G
RDS(on)=425.0mΩ
LV – OptiMOS™
RDS(on) max
@VGS=10V
[mΩ]
40-50
TO-252
(DPAK)
TO-262
(I2PAK)
TO-263
(D2PAK)
TO-263
(D2PAK 7pin)
TO-220
IPB407N30N
IPP410N30N
RDS(on)=40.7mΩ
RDS(on)=41.0mΩ
TO-220 FullPAK
SuperSO8
S3O8
Bare Die
(RDS(on) typ.)
61
Small Signal
Voltage
[V]
SOT-223
TSOP-6
SOT-89
SC-59
SOT-23
SOT-323
SOT-363
BSP317P
- 250
4Ω, -0.43A, LL
BSP92P
BSS192P
BSR92P
12Ω, -0.26A, LL
12Ω, -0.19A, LL
11Ω, -0.14A, LL
BSP321P
900mΩ, -0.98A, NL
- 100
BSP322P
800mΩ, -1.0A, LL
BSP316P
BSR316P
1.8Ω, -0.68A, LL
1.8Ω, -0.36A, LL
BSP612P
120mΩ, 3A, LL
- 60
BSP613P
BSS83P
130mΩ, 2.9A, NL
2Ω, -0.33A, LL
BSP170P
BSS84P
BSS84PW
300mΩ, -1.9A, NL
8Ω, -0.17A, LL
8Ω, -0.15, LL
P-Channel MOSFETs
BSP171P
300mΩ, -1.9A, LL
BSP315P
BSR315P
800mΩ, -1.17A, LL
- 30
- 20
800mΩ, -0.62A, LL
BSL303SPE
BSR303PE 1)
~30mΩ, ~-6.6A, LL
~30mΩ, ~-3.3A, LL
BSL305SPE
BSR305PE 1)
~50mΩ, ~-5.3A, LL
~50mΩ, ~-2.7A, LL
BSL307SP
BSS308PE
43mΩ, -5.5A, LL
80mΩ, -2.1A, LL, ESD
BSL308PE
BSS314PE
80mΩ, -2.1A, LL, dual, ESD
140mΩ, -1.5A, LL, ESD
BSL314PE
BSS315P
140mΩ, -1.5A, LL, ESD, dual
150mΩ, -1.5A, LL
140mΩ, -1.5A, LL, ESD
BSS356PWE 1)
BSD356PE 1)
~560mΩ, ~0.73A, LL
~560mΩ, ~0.73A, LL
BSL207SP
BSS209PW
BSV236SP
41mΩ, -6A, SLL
550mΩ, -0.58A, SLL
175mΩ, -1.5A, SLL
BSL211SP
BSS223PW
BSD223P
67mΩ, -4.7A, SLL
1.2Ω, -0.39A, SLL
1.2Ω, -0.39A, SLL, dual
BSS215P
150mΩ, -1.5A, SLL
1)
Coming Q2 2015
All products are qualified to Automotive AEC Q101
62
BSD314SPE
LV – OptiMOS™
Small Signal
Complementary
Voltage
[V]
-20/20
SOT-223
TSOP-6
SOT-89
SC-59
SOT-23
SOT-323
SOT-363
BSL215C
BSD235C
N: 140mΩ, 1.5A, SLL
P: 150mΩ, -1.5A, SLL
N: 350mΩ, 0.95A, SLL
P: 1.2Ω, -0.53A, SLL
BSL316C
-30/30
N: 160mΩ, 1.4A, LL
P: 150mΩ, -1.5A, LL
BSL308C
BSD356C 1)
N: 57mΩ, A, LL
P: 80mΩ, A, LL,
N: 350mΩ, 0.95A, LL
P: ~560mΩ, ~0.73A, LL
2)
Coming Q2 2015
63
Small Signal
Voltage
[V]
SOT-223
N-Channel MOSFETs
20
30
TSOP-6
SOT-89
SC-59
BSL802SN
BSR802N
22mΩ, 7.5A, ULL
23mΩ, 3.7A, ULL
BSL202SN
BSR202N
BSS806NE
22mΩ, 7.5A, SLL
21mΩ, 3.8A, SLL
57mΩ, 2.3A, ULL, ESD
BSS806N
BSD816SN
57mΩ, 2.3A, ULL
160mΩ, 1.4A, ULL
BSL205N
BSS205N
BSD214SN
50mΩ, 2.5A, SLL, dual
50mΩ, 2.5A, SLL
140mΩ, 1.5A, SLL
BSL207N
BSS816NW
BSD840N
160mΩ, 1.4A, ULL
400mΩ, 0.88A, ULL, dual
BSL214N
BSS214N
BSS214NW
BSD235N
140mΩ, 1.5A, SLL
140mΩ, 1.5A, SLL
BSL302SN
BSR302N
BSS306N
25mΩ, 7.1A, LL
23mΩ, 3.7A, LL
57mΩ, 2.3A, LL
BSL306N
BSS316N
BSD316SN
57mΩ, 2.3A, LL, dual
160mΩ, 1.4A, LL
160mΩ, 1.4A, LL
BSS670S2L
650mΩ, 0.54A, LL
BSP318S
BSL606SN
BSS606N
BSR606N
BSS138N
BSS138W
90mΩ, 2.6A, LL
60mΩ, 4.5A, LL
60mΩ, 3.2A, LL
60mΩ, 2.3A, LL
3.5Ω, 0.23A, LL
3.5Ω, 0.28A, LL
BSS7728N
120mΩ, 2.9A, NL
5Ω, 0.2A, LL
BSP295
SN7002N
SN7002W
300mΩ, 1.8A, LL
5Ω, 0.2A, LL
5Ω, 0.23A, LL
2N7002
2N7002DW
3Ω, 0.3A, LL
3Ω, 0.3A, LL, dual
BSS159N
8Ω, 0.13A, depl.
BSP716N
BSL716SN
160mΩ, 2.3A, LL
150mΩ, 2.5A, LL
All products are qualified to Automotive AEC Q101 (except 2N7002)
64
SOT-363
57mΩ, 2.3A, ULL, dual
BSP320S
75
SOT-323
BSL806N
55
60
SOT-23
Voltage
[V]
100
SOT-223
TSOP-6
SOT-89
SC-59
SOT-23
BSP373N
BSL373SN
BSS169
240mΩ, 1.8A, NL
230mΩ, 2.0A, NL
12Ω, 0.09A, depl.
BSP372N
230mΩ, 1.8A, LL
BSL372SN
220mΩ, 2.0A, LL
BSS119N
6Ω, 0.19A, LL
VGS(th) 1.8V to 2.3V
BSP296N
BSL296SN
600mΩ, 1.2A, LL
460mΩ, 1.4A, LL
SOT-323
LV – OptiMOS™
Small Signal
SOT-363
BSS123N
6Ω, 0.19A, LL
VGS(th) 0.8V to 1.8V
BSP297
200
1.8Ω, 0.66A, LL
BSP149
N-Channel MOSFETs
3.5Ω,0.14 A, depl.
240
BSP88
BSS87
BSS131
6Ω, 0.35A, 2.8V rated
6Ω, 0.26A, LL
14Ω, 0.1A, LL
BSP89
6Ω, 0.35A, LL
BSP129
6Ω, 0.05A, depl.
BSS139
250
30Ω, 0.03A, depl.
BSP179
24Ω, 0.20A, depl.*
400
BSP298
3Ω, 0.5A, NL
BSP324
25Ω, 0.17A, LL
500
600
800
BSP299
4Ω, 0.4A, NL
BSP125
BSS225
BSS127
45Ω, 0.12A, LL
45Ω, 0.09A, LL
500Ω, 0.023A, LL
BSP135
BSS126
60Ω, 0.02A, depl.
700Ω, 0.007A, depl.
BSP300
20Ω, 0.19A, NL
* In development
65
Power P-Channel MOSFETs
RDS(on)
@ VGS=10V
TO-220
TO-252
(DPAK)
TO-263
(D2PAK)
30mΩ
BSO207P H (dual)
45mΩ
BSO211P H (dual)
67mΩ
BSC030P03NS3 G
3mΩ
IPD042P03L3 G
4,2mΩ
SPD50P03L G 1) *
IPD068P03L3 G
5-7mΩ
BSC060P03NS3E G
BSO080P03NS3 G
BSO080P03NS3E G
BSO080P03S H
BSO301SP H
~8mΩ
P-Channel MOSFETs
S3O8
BSO203SP H
BSO203P H (dual)
21mΩ
- 30V
SuperSO8
BSO201SP H
7mΩ
- 20V
SO-8
BSC080P03LS G
BSC084P03NS3 G
BSC084P03NS3E G
BSZ086P03NS3 G
BSZ086P03NS3E G
BSZ120P03NS3 G
BSZ120P03NS3E G
12mΩ
BSO130P03S H
13mΩ
BSC130P03LS G
BSZ180P03NS3 G
BSZ180P03NS3E G
18mΩ
BSO200P03S H
BSO303SP H
20mΩ
BSO303P H (dual)
21mΩ
1,2Ω
23mΩ
SPP80P06P H *
SPD30P06P G *
75mΩ
- 60V
130mΩ
SPP18P06P H *
210mΩ
- 100V
240mΩ
SPP08P06P H *
SPD08P06P G *
SPP15P10PL H *
SPD15P10PL G *
SPP15P10P H *
SPD15P10P G *
SPB18P06P G *
BSO613SPV G *
SPB08P06P G *
SPD04P10PL G *
850mΩ
SPD04P10P G *
1Ω
Comp.
SPD18P06P G *
SPD09P06PL G *
250mΩ
300mΩ
SPB80P06P G *
BSO612CV G *
-60/
60V
11-30mΩ
BSO615C G *
Power P-Channel MOSFETs
Comp.
RDS(on)
@ VGS=4.5V
-20V/
20V
TO-220
55150mΩ
1)
5-leg
* Products are qualified to Automotive AEC Q101
66
TO-252
(DPAK)
TO-263
(D2PAK)
SO-8
SuperSO8
S3O8
BSZ15DC02KD H*
OptiMOS™ Nomenclature
LV – OptiMOS™
Naming System
OptiMOSTM
BSC
014
Package Type
BSB = CanPAK™
(M Can)
BSC = SuperSO8
BSF = CanPAK™
(S Can)
BSO = SO-8
BSZ = S3O8
SPA/IPA = FullPAK
SPB/IPB = D2PAK
SPC/IPC = Chip Product
SPD/IPD = DPAK
SPI/IPI = I2PAK
SPP/IPP = TO-220
SPS/ IPS = IPAK
Short Leads
SPT/IPT = TO-Leadless
RDS(on) [mΩ]
Divide by 10 to get RDS(on)
value e.g. 014 = 1.4mΩ
However, if the sixth character
is a C, the fourth and the fifth
character indicate the RDS(on)
e.g. 12C=12mΩ
For chip products chip area
in mm2 multiplied by 10
N = N-Channel
P = P-Channel
C = Complementary
Breakdown Voltage [V]
Multiply by 10 to get
voltage class e.g. 03 = 30V
E = Extended, +5V, e.g. E2 = 25V
N
03
L
S
X
E
G
RoHS compliant
Features
F = Fast switching
R = Integrated gate
resistor
E = ESD protection
A = Qualified according to AECQ101
3 = Technology generation
I = Monolithically integrated
Schottky like diode
FD = Fast Diode
Package Options
SO-8/SuperSO8/S3O8
S = Single chip
D = Dual chip
CanPAK™
X = MX footprint
N = MN footprint
Z = MZ footprint
Q = SQ footprint
T = ST footprint
H = SH footprint
J = SJ footprint
Level
N = Normal Level
M = Logic Level 5V opt.
L = Logic Level
K = Super Logic Level
J = Ultra Logic Level
(NL)
(LL)
(ELL)
(SLL)
(ULL)
to be used from VGS
10.0
4.5
4.5
2.5
1.8
67
OptiMOS™ Nomenclature
New OptiMOSTM 30V
BSC
N
0901
X
I
I = Monolithically
integrated
Schottky like diode
Package Type
Consecutively Number
without any correlation
to product specification
D = Dual
E = ESD
S = Single
Channels
N = N-Channel
P = P-Channel
Small Signal
BSX
68
J1
Y
J2
Z
“X” indicates the Package
D = SOT-363
P = SOT-223
R = SC59
S = SOT-89, SOT-23, SOT-323
L = TSOP-6
Additional Features
E = ESD protected MOSFET
3 digits product identifier
meaning dependent on
product generation
Only present in following case
W = to distinguish SOT-323 from SOT-23
Only present in following case
S = Single (only for packages which
are also used for multichip products)
Polarity
N = N-Channel
P = P-Channel
C = Complementary
(N-Ch + P-Ch)
OptiMOS™ Support
Expert Support for OptiMOS™
Application Notes, Datasheets & More
www.infineon.com/optimos-lowvoltage
www.infineon.com/optimos-mediumvoltage
www.infineon.com/smallsignal
www.infineon.com/pchannel
www.infineon.com/depletion
www.infineon.com/complementary
Latest Videos
www.infineon.com/mediacenter
Low Voltage Evaluation Boards
www.infineon.com/motorcontrolapplicationkit
www.infineon.com/to-leadless-evaluationboard
www.infineon.com/1kw-bldc-evaluationboard
Datasheets
69
CoolMOS™
CoolMOS™
Continuous Leadership in High Voltage MOSFETs
The revolutionary CoolMOS™ power family sets new standards in the field of Energy Efficiency. Our CoolMOS™ products offer a significant reduction of conduction, switching and driving losses and enable high power density and efficiency for superior power conversion systems. Especially, the latest state-of-the-art generation of high voltage power
MOSFETs makes AC/DC Power Supplies more efficient, more compact, lighter and cooler than ever before.
Each application has its own requirements and optimization criteria which are reflected in the available technologies
paired with innovative package solutions. Driving factors like efficiency, power density, controllability, EMI, layout
resistance, commutation behavior and cost can not be fulfilled at the same time and leading to different technologies
and solutions.
For instance, high full load efficiency can be the focus. This can be achieved with lower RDS(on), yet at a higher cost. The
patented TO-247 4pin package using the Kelvin source concept helps to decrease the feedback inductance. This leads
to lower switching losses for free and enables better gate drive and lower RFI at the same time.
A further design consideration is the handling of worst case conditions. The associated high dv/dt can trigger oscillations especially if the layout can not be optimized for the device behavior. Technologies like C6, E6, P6, CFD2 and the
recently released CE series take this into account with intrinsic patented damping circuits that come without penalty
in efficiency. At the same time the commutation behavior at commutation on the intrinsic body diode is improved,
which enables resonant topologies.
Best Solutions for Challenges Within Your Applications
EMI: Higher efficiency leads to faster switching slopes and can not be optimized from technology point of view.
Using fast parts the layout must be optimized by avoiding large areas in commutation and gate loops. Secondly
parasitic should be minimized. This can be easily done via bifilar arrangements and small capacitive coupling areas
on jumping potentials including coupling capacitances of magnetics. We have developed an in-depth understanding
of these topics and our engineers are happy to support your design.
Efficiency: Reflects the switching and gate drive losses. In hard switch topologies like PFC the turn-off and turn-on
losses and in soft switched only the turn-off losses are reflected.
Commutation: Reflects the behavior at hard commutation on the body diode. The intrinsic damping circuits or
reverse recovery charge reduction lowers the overvoltage spike in the current cut-off phase.
Controllability: Describes the layout resistance. Especially under worst case conditions high dv/dt and di/dt can be
achieved. A good controllability is achieved if the part is limiting actively the slopes.
Our nomenclature guides through different optimization criteria and will help to select and find the perfect matching
part for your application.
70
HV – CoolMOS™
CoolMOS™
High Power SMPS
In high power SMPS, we recommend the following products for Server, Telecom, TV, PC Silverbox and Solar applications:
CoolMOS™ P6: Superior efficiency combined with ease-of-use and low design-in effort. P6 is recommended for most
designs in high power SMPS applications (100W … 3kW) as an “all-rounder” part with excellent performance. The P6
is suitable for both soft and hard switching applications due to its good body diode ruggedness. High efficiency well
ahead of competitor products in both PFC and LLC completes its performance.
CoolMOS™ C7: Best-in-Class efficiency and fastest switching performance in the industry. The C7 is a part optimized
for the highest efficiency and for higher power density designs. For example, at 45mΩ the C7 allows for > 0.7%
higher light load efficiency than CoolMOS™ CP.
Low Power SMPS
In low power SMPS, we recommend the following products for Smartphone/Tablet Chargers, Notebook Adapters and TV sets:
CoolMOS™ C6/ E6: Good efficiency, excellent ease-of-use and excellent EMI performance make C6/E6 the product
of choice for many low power applications such as flyback-based Adapters and also PFC and LLC. It’s switching
behavior makes it a product of choice for fast design-in when better switching performance (and price) than the
predecessor CoolMOS™ C3 is needed.
CoolMOS™ CE: Product for lower switching frequencies or higher transformer coupling capacitances.
This technology comes ahead with smoother waveforms, lesser dv/dt, a higher internal gate resistor and even better
EMI. Offers better efficiency and thermal behavior than standard MOSFET.
CoolMOS™ C3: For 800V and 900V, we recommend the well-established CoolMOS™ C3 800V and C3 900V.
71
CoolMOS™ P6
CoolMOS™ P6 Series
Superior Efficiency Combined with Ease-of-Use
600V CoolMOS™ P6 is Infineon's answer to SMPS applications that require excellent performance yet also a high level of
ease-of-use in the design-in process. P6 is suitable for both soft and hard switching applications due to its good body diode
ruggedness. Optimizations such as Qg, Vth, Eon, and Eoff enable its superior efficiency, while its ease-of-use feature is attributed
to the optimized dv/dt (di/dt) controllability, internal Rg, and improved oscillation behavior. P6 achieves very low conduction and switching losses especially in light load condition enabling switching applications to work more efficient and
be designed more compact, lighter and cooler. Moreover, with its granular portfolio, P6 addresses the specific needs of
applications such as Server, PC Power, Telecom rectifiers and Consumer applications meanwhile offers the best price/
performance ratio on the market today.
Features
Reduced gate charge (Qg)
Optimized Vth for soft switching
Good body diode ruggedness
Optimized integrated Rg
Improved dv/dt
Benefits
Improved efficiency in light
load condition
Better efficiency in soft switching
applications due to earlier turn-off
Suitable for hard- and softswitching topologies
Excellent ease-of-use and good controllability of switching behavior
High robustness, better efficiency
Outstanding quality and reliability
Figure of Merit
(Conduction loss x switching loss)
Ease-of-Use Focus
Balance
Techno
logy tre
nd
Applications
PFC stages for Server, Telecom
Rectifier, PC Silverbox,
Gaming Consoles
PWM stages (TTF, LLC) for Server,
Telecom Rectifier, PC Silverbox,
Gaming Consoles
Efficiency Focus
toward
highes
t perfo
rmance
C3
C6/E6
P6
New products
CP
C7
Legacy products
P6 is optimized for ease-of-use and addresses typical design challenges in high power SMPS, while offering Best-in-Class
efficiency on a level close to CoolMOS™ CP:
P6 offers good controllability for managing dv/dt (di/dt) and EMI: With an external gate resistor Rg,ext the switching
speed can be controlled very well offering the power system designer high flexibility in balancing efficiency vs. EMI
P6 is optimized for improved oscillation: parasitic capacitances and inductances in the PCB often lead to unstable
designs. P6 comes with a moderate internal Rg providing ease-of-use in the design-in process, yet without reducing
switching speed and efficiency (P6 is at the level of CoolMOS™ CP)
P6 is suitable for LLC due to its rugged body diode: P6 has a commutation ruggedness sufficient for LLC applications. Combined with its Best-in-Class efficiency in LLC this makes P6 a premier choice for this topology
72
CoolMOS™ P6
P6 is optimized for ease-of-use and addresses typical design challenges
Oscillation due to dv/dt
Cpar
Lpar
D
Cgd
Rg,ext
G
Cds
Rg,in
Cgs
Oscillation due to di/dt
Challenges from fast switching
EMI and oscillations from high di/dt
→ P6 with good controllability for ease-of-use
Lsource
Challenges in LLC
Body diode hard commutation
High voltage overshoot
High current spike
High device stress
→ P6 with good commutation ruggedness
Lpar: Layout parasitic inductance
Cpar: Layout parasitic capacitance
S
P6 for LLC Applications
P6 shows the Best-in-Class efficiency
over full load range especially at the
light load conditions thanks to its
low Qg and higher Vth. Main competitor products are at the level of below
CoolMOS™ P6 or lower than
CoolMOS™ C6.
Efficiency comparison of 190mΩ device tested on Infineon 600W LLC board
0.1
0.0
Efficiency difference [%]
-0.1
-0.2
-0.3
-0.4
-0.5
-0.6
-0.7
0
5
10
15
20
25
30
35
40
45
50
Load current [A]
P6
C6
Comp. A
Comp. B
P6 for PFC Stages
The efficiency of CoolMOS™ P6 is at
the level of CoolMOS™ CP and well
ahead of competitors while offering
much better ease-of-use. This graph
shows the PFC efficiency difference
at highline for 41mΩ device tested
on 2500W board.
Efficiency comparison of 41mΩ device @ 65kHz, highline
0.1
0
Efficiency difference [%]
CoolMOS™ P6 sets benchmark in
LLC efficiency
Low Qg improves the light
load efficiency
Higher Vth improves efficiency
due to lower turn-off losses
-0.1
P6 reaches similar
performance as CP
-0.2
P6 efficiency one step ahead
of competitors
-0.3
200
400
600
800
1000
1200
1400
1600
1800
2000
2200
2400
2600
Pout [W]
P6
C6
Comp. A
Comp. B
Comp. C
73
HV – CoolMOS™
VDS
Challenges in PFC
VGS out of spec.
High switching loss
High device stress
→ P6 optimized for improved oscillation
CoolMOS™ C7
New CoolMOS™ C7 Series
Highest Efficient MOSFET in the Market
With the new CoolMOS™ C7 series Infineon brings a new level of performance in hard switching applications such as Power
Factor Correction (PFC). It is the the successor to the CP series and provides efficiency benefits across the whole load range
through balancing a number of key parameters. The Best-in-Class RDS(on) leads to increased full load efficiency and enables
power density benefits by using smaller packages for the same RDS(on). Eoss reduction brings efficiency benefits at light load
and the low Qg correlates to faster switching and lower Eon and Eoff which gives efficiency benefits across the whole load
range. The very low Eoss and Qg are the two key parameters in enabling no efficiency loss when moving up in switching frequency. This also enables power density benefits by reducing the size of the circuits magnetic components.
Key Features
Revolutionary Best-in-Class RDS(on) /package
Reduced energy stored in output capacitance Eoss
Low gate charge Qg
Key Benefits
Lowest conduction loss/package
Power density by use of smaller packages
Low switching losses
Enabler to power density by not losing efficiency at higher switching fequencies
Improved light load efficiency
Power Density – Increased Switching Frequency
C7 is an enabler technology that gives customers the stepping stone to new higher switching frequency technologies
like GaN but with the proven reliability of Superjunction technology.
Competitor A
Competitor B
CoolMOS™ C7
RDS(on) [mΩ]
Paramter
45
36
45
Qg typ [nC]
143
218
93
Eoss [µJ]
13
27,5
11,7
Same losses at higher
frequency leads to size
reduction of magnetic
components for improved
power density
65kHz
120kHz
Power Density with C7
The higher up the switching frequency of an application goes, the more important parameters such as Eoss and Qg
become due to losses of efficiency. The very low values of these parameters in CoolMOS™ C7 minimize losses in a
power factor correction (PFC) circuit – at 120kHz the same efficiency can be reached as with the predecessor series
at 65kHz. This brings a benefit in power density because the sizes of magnetic components can be reduced.
74
CoolMOS™ C7
Best-in-Class Efficiency in the Industry
HV – CoolMOS™
C7 offers the highest efficiency of competitor devices at the same RDS(on) , especially at light load the difference is remarkable.
The graph shows the high efficiency when switching at 100kHz in PFC, whereas older technologies such as CP and
competitor technologies reduce in efficiency, C7 remains high. Our customers make use of this in 2 ways:
Increasing power density – higher switching frequencies are enabled by C7 that enable even smaller magnetic
components in circuit and thus allow for much improved form factors
Reduced power losses – some customers use C7 for their highest efficiency designs and in order to reduce energy
consumption
World leading RDS(on) *A Leading to Power Density Benefits
650V C7 vs Competition in TO-247
650V C7 vs Competition in D2PAK/TO-220
100
40
90
36
35
Max. RDS(on) mΩ [@VGS=10V]
Max. RDS(on) mΩ [@VGS=10V]
90
80
63
70
60
45
50
40
30
20
29
30
25
20
19
15
10
5
10
0
0
CoolMOS™ C7
Competitor A
Competitor B
CoolMOS™ C7
Competitor A
Competitor B
Previous 45mΩ CP in TO-247 (IPW60R045CP)
World leading RDS(on) package
Now 45mΩ C7 in TO-220 (IPP65R045C7)
–– TO-247 package with a 34% lower RDS(on) than the
nearest competitor
–– TO-220/D²PAK with 29% lower RDS(on) than the
nearest competitor
As well as improving efficiency, the new RDS(on) values
mean a benefit in power density with the ability to now
use smaller packages than ever before
Difference [%]
Efficiency difference @Low line 90Vac
Rg (on/off)=10Ω , fsw=100kHz
0,9
0,8
0,7
0,6
0,5
0,4
0,3
0,2
0,1
0
-0,1
-0,2
-0,3
-0,4
-0,5
-0,6
-0,7
-0,8
-0,9
-1
Measured CCM PFC Efficiency (Plug & Play)
C7 advantage enables the customer to:
Improve efficiency with smaller footprint and enable
higher switching frequency
45mΩ
45mΩ
1.6%
36mΩ
36mΩ
0
200
400
600
800
1000
1200
Pout [W]
IPW60R045CP
TO-247
Competitor 1
TO-247
IPP65R045C7
TO-220
Competitor 2
TO-220
75
CoolMOS™ TO-247 4pin
New CoolMOS™ TO-247 4pin
Improved Full Load Efficiency via Package Innovation
Infineon has introduced the TO-247 4pin package – a package innovation leading to higher efficiency at very reasonable cost. The core idea of this package is to add a 4th pin that acts as a Kelvin Source reducing parasitic inductance, in
order to improve efficiency.
Motivation and Concept: Source-Sense Concept
The idea of the 4th pin, so-called "source sense", is to separate the drive circuit loop from the high current load:
The issue with traditional high power through hole packages is that the voltage drop across the source pin (caused
by the source inductance) counteracts the gate drive voltage and slows down the switching event. Efficiency loss is
the consequence
Solution with Infineon’s new TO-247 4pin:
–– An additional source pin is added to separate the Source current (pin S) from the Source Sense signal (pin SS) that is
used for driving the circuit. Doing so separates the parasitic voltage drop on the source inductance from the gate loop as
can be seen in the figure.
–– The Source Sense or Kelvin Source connection will have its own parasitic inductance. But this does not play a big
negative role, because of the relatively low currents flowing in this circuit.
D
G
+ VRG –
+
VCGS
+
VDRV
–
Schematic Symbol
–
+
IDRV
VLSS
–
SS
ID
+
VLS
–
D
G
S
SS
S
D
S SS G
Realization in a Package
How this can look like in reality can be seen in the package schematic diagram of the TO-247 4pin package:
The lead frame is direct connected to the very left pin, having high clearance and creepage distance to the source pin
with its massive bond wires. The following pins for the gate driving do not having high voltage potential, so the
distance can be held much smaller.
76
HV – CoolMOS™
CoolMOS™ TO-247 4pin
Impact on the Application Performance: CCM PFC Efficiency @100kHz; 90Vac ; 10Ω; IDH16G65C5
96.0
Efficiency [%]
95.5
95.0
94.5
94.0
0.4%
93.5
93.0
200
400
600
800
1000
1200
PFC efficiency comparison between 3pin and 4pin
configuration for 90Vac (PFC CCM, Rg=10Ω, IDH16G65C5
@100kHz; 5mm pin length). By connecting the same
device (using the 4pin as a standard 3pin and then
connecting in the Kelvin Source for a real like-for-like
comparison), a benefit of 0.4% efficiency equaling 5W
power saving can be seen
Pout [W]
IPZ65R045C7 (3pin)
IPZ65R045C7 (4pin)
Impact to the Application Performance: CCM PFC Efficiency @100kHz; 90Vac
96.5
The improved switching performance now offers new
opportunities. For example, using a higher ohmic
device in 4pin in order to improve efficiency and cost at
the same time (in this case, using a 45mΩ device
in standard 3pin TO-247 and a 65mΩ device in the
TO-247 4pin). Furthermore, the light load efficiency is
dramatically improved.
96.0
Efficiency [%]
95.5
95.0
94.5
94.0
93.5
93.0
92.5
92.0
200
400
600
IPW60R045CP, IDH16S60C
Pout [W]
800
1000
1200
IPZ65R065C7, IDH16G65C5
77
CoolMOS™ CE
New CoolMOS™ CE
Superjunction High Voltage MOSFETs Optimized for Consumer Electronics
What is CoolMOS™ CE?
CoolMOS™ CE is a technology platform of Infineon's market leading high voltage power MOSFET designed according
to the Superjunction principle (SJ) and conceived to fulfill consumer requirements
CoolMOS™ CE portfolio offers 500V, 600V, 650V and 800V devices targeting low Power Chargers, Adapters, LCD, LED
TV and LED Lighting and Power Tools applications
This new series of CoolMOS™ is cost optimized to meet typical requirements in consumer application
CoolMOS™ CE is suitable for hard and soft switching applications and as modem SJ, it delivers low conduction and
switching losses improving efficiency and ultimately reduces power consumption
CoolMOS™ CE's ease-of-use enables customers to reduce the design-in cycle and compete in dynamic markets
Features
Technical Benefits
Customer Benefits
Narrow margins between typical
Low switching losses
Suitable for hard and soft switching
Easy controllable of switching behavior
Improved efficiency and consequent reduction of
and max RDS(on)
Reduced energy stored in output capacitance (Eoss)
Good body diode ruggedness and reduced reverse
recovery charge (Qrr)
power consumption
Less design-in effort
Ease-of-use
Optimized integrated gate resistor (Rg)
Topology
Voltage Class
Technology
Benefit
DCM/CCM PFC, HB LLC
500V
CE
DCM PFC, HB LLC
500V/600V
CE
Rugged body diode which prevents device failure during hard commutation
Flyback
600V/650V/800V
CE
Best price competitive CoolMOS™ family
Lower switching losses vs. standard MOSFET
Controlled dv/dt & di/dt for better EMI
78
CoolMOS™ Automotive
600V CoolMOS™ CPA and 650V CoolMOS™ CFDA
Automotive Technology in Pole Position
HV – CoolMOS™
After launching the first series of high voltage Automotive MOSFET, the 600V CoolMOS™ CPA series,
Infineon has launched its second generation of market leading Automotive qualified high voltage MOSFET, the 650V
CoolMOS™ CFDA series. The 600V CoolMOS™ CPA portfolio and the broad 650V CoolMOS™ CFDA portfolio provide all
benefits of a fast switching Superjunction MOSFET while fulfilling the enhanced reliability requirements for Automotive applications realized with special screening measures in front end and back end as well as qualification compliant
to AEC Q100. The 650V CoolMOS™ CFDA series additionally caters to special application needs with its integrated Fast
Body Diode. This Fast Body Diode is the key for addressing resonant switching topologies resulting in lower switching
losses due to the low gate charge. The softer commutation behavior and consequent reduced EMI appearance gives
the 650V CoolMOS™ CFDA series a clear advantage in comparison to competitor parts. Furthermore, limited voltage
overshoot during hard commutation of the body diode enables easier implementation of layout and design.
Therefore, the combination of both the 600V CoolMOS™ CPA and the new 650V CoolMOS™ CFDA technologies are the
best choice for switching topologies in Automotive applications.
Common Key Features CoolMOS™ "A"
First 600V/650V Automotive qualified high voltage technologies for automotive market
Compliant to AEC Q101 standard
Key Features 600V CoolMOS™ CPA
Lowest gate charge value Qg
Applications 600V CoolMOS™ CPA
Hard switching topologies
PFC boost stages in On-Board Charger
Active clamp or 2 transistor forward in DC/DC Converter
Key Features 650V CoolMOS™ CFDA
Limited voltage overshoot during hard commutation – self-limiting di/dt and dv/dt
Low Qrr at repetitive commutation on body diode and low Qoss
Applications 650V CoolMOS™ CFDA
Resonant switching topologies
LLC or full bridge ZVS in DC/DC Converter
HID Lamp
79
CoolMOS™ Product Table
500V CoolMOS™ CE
ID
[A]
RDS(on)
[mΩ]
TO-220
TO-220 FullPAK
TO-247
TO-252
(DPAK)
TO-251
(IPAK)
18.5
190
IPP50R190CE
IPA50R190CE
IPW50R190CE
7.5-13.0
280
IPP50R280CE
IPA50R280CE
IPW50R280CE
6.3-9.9
380
IPP50R380CE
IPA50R380CE
IPD50R380CE
5.4-7.6
500
IPP50R500CE
IPA50R500CE
IPD50R500CE
4.6-6.1
650
IPA50R650CE
IPD50R650CE
4.1-5.0
800
IPA50R800CE
IPD50R800CE
3.7-4.3
950
IPA50R950CE
IPD50R950CE
IPU50R950CE
3.1
1400
IPD50R1K4CE
IPU50R1K4CE
2.4
2000
IPD50R2K0CE
IPU50R2K0CE
1.5
3000
IPD50R3K0CE
IPU50R3K0CE
TO-251
(IPAK SL)
IPD50R280CE
600V CoolMOS™ CE
80
ID
[A]
RDS(on)
[mΩ]
TO-220
TO-220 FullPAK
TO-247
TO-252
(DPAK)
TO-251
(IPAK)
10.3
400
IPA60R400CE
IPD60R400CE
9.1
460
IPA60R460CE
IPD60R460CE
7.0
650
IPA60R650CE
IPD60R650CE
5.6
800
IPA60R800CE
IPD60R800CE
4.3
1000
IPD60R1K0CE
IPU60R1K0CE
3.1
1500
IPD60R1K5CE
IPU60R1K5CE
2.3
2100
IPD60R2K1CE
IPU60R2K1CE
TO-251
(IPAK SL)
HV – CoolMOS™
650V CoolMOS™ CE
ID
[A]
RDS(on)
[mΩ]
TO-220
TO-220 FullPAK
TO-247
TO-252
(DPAK)
TO-251
(IPAK)
TO-251
(IPAK SL)
400
IPS65R400CE1)
650
IPS65R650CE1)
4.3
1000
IPS65R1K0CE
3.1
1500
IPS65R1K5CE
800V CoolMOS™ CE
ID
[A]
RDS(on)
[mΩ]
TO-220
TO-220 FullPAK
TO-247
TO-252
(DPAK)
TO-251
(IPAK)
6.8
310
IPA80R310CE
5.0
460
IPA80R460CE
4.5
650
IPA80R650CE
3.6-5.7
1000
IPA80R1K0CE
IPD80R1K0CE
IPU80R1K0CE
2.8-3.9
1400
IPA80R1K4CE
IPD80R1K4CE
IPU80R1K4CE
1.9
2800
IPD80R2K8CE
IPU80R2K8CE
TO-251
(IPAK SL)
1) Coming Q3 2015
81
600V CoolMOS™ C6
ID
[A]
RDS(on)
[mΩ]
TO-220
TO-262
(I2PAK)
TO-263
(D2PAK)
TO-220 FullPAK
TO-247
TO-252
(DPAK)
77.5
41
IPW60R041C6
53.0
70
IPW60R070C6
57.7
74
IPP60R074C6
38.0
99
IPP60R099C6
IPB60R099C6
IPA60R099C6
IPW60R099C6
30.0
125
IPP60R125C6
IPB60R125C6
IPA60R125C6
IPW60R125C6
23.8
160
IPP60R160C6
IPB60R160C6
IPA60R160C6
IPW60R160C6
20.2
190
IPP60R190C6
IPI60R190C6
IPB60R190C6
IPA60R190C6
IPW60R190C6
13.8
280
IPP60R280C6
IPI60R280C6
IPB60R280C6
IPA60R280C6
IPW60R280C6
10.6
380
IPP60R380C6
IPI60R380C6
IPB60R380C6
IPA60R380C6
IPD60R380C6
8.1
520
IPP60R520C6
IPA60R520C6
IPD60R520C6
7.3
600
IPP60R600C6
IPB60R600C6
IPA60R600C6
IPD60R600C6
4.4
950
IPP60R950C6
IPB60R950C6
IPA60R950C6
3.2
1400
IPP60R1K4C6
IPD60R950C6
IPD60R1K4C6
IPL60R1K5C6S
1500
2.4
IPD60R2K0C6
2000
IPL60R2K1C6S
2100
1.7
ThinPAK 5x6
3300
IPD60R3K3C6
650V CoolMOS™ C6
ID
[A]
RDS(on)
[mΩ]
TO-220
TO-262
(I2PAK)
TO-263
(D2PAK)
TO-220 FullPAK
TO-247
TO-252
(DPAK)
83,2
37
IPW65R037C6
53,5
70
IPW65R070C6
57,7
74
IPP65R074C6
38,0
99
IPP65R099C6
IPI65R099C6
IPB65R099C6
IPA65R099C6
IPW65R099C6
20,2
190
IPP65R190C6
IPI65R190C6
IPB65R190C6
IPA65R190C6
IPW65R190C6
16,1
250
13,8
280
IPP65R280C6
IPI65R280C6
IPB65R280C6
IPA65R280C6
IPW65R280C6
10,6
380
IPP65R380C6
IPI65R380C6
IPB65R380C6
IPA65R380C6
IPD65R380C6
7,3
600
IPP65R600C6
IPI65R600C6
IPB65R600C6
IPA65R600C6
IPD65R600C6
IPD65R250C6
IPL65R650C6S
650
4,5
3,2
82
ThinPAK 5x6
950
IPD65R950C6
1000
IPD65R1K0C6
IPL65R1K0C6S
1400
IPD65R1K4C6
IPL65R1K5C6S
600V CoolMOS™ E6
RDS(on)
[mΩ]
20.2
190
IPP60R190E6
IPA60R190E6
IPW60R190E6
13.8
280
IPP60R280E6
IPA60R280E6
IPW60R280E6
10.6
380
IPP60R380E6
IPA60R380E6
IPD60R380E6
9.2
450
IPP60R450E6
IPA60R450E6
IPD60R450E6
8.1
520
IPP60R520E6
IPA60R520E6
IPD60R520E6
7.3
600
IPP60R600E6
IPA60R600E6
IPD60R600E6
5.7
750
IPP60R750E6
IPA60R750E6
IPD60R750E6
TO-220
TO-262
(I2PAK)
TO-263
(D2PAK)
TO-220 FullPAK
TO-247
TO-252
(DPAK)
ThinPAK 8x8
HV – CoolMOS™
ID
[A]
650V CoolMOS™ E6
ID
[A]
RDS(on)
[mΩ]
20.2
190
16.1
250
13.8
280
13.1
310
10.6
380
TO-220
TO-262
(I2PAK)
TO-263
(D2PAK)
TO-220 FullPAK
IPP65R190E6
IPA65R190E6
TO-247
TO-252
(DPAK)
IPW65R190E6
IPL65R190E6
IPD65R250E6
IPP65R280E6
IPI65R280E6
IPB65R280E6
IPA65R280E6
IPW65R280E6
IPL65R310E6
IPP65R380E6
IPA65R380E6
IPD65R380E6
IPL65R420E6
420
7.3
600
6.7
660
ThinPAK 8x8
IPP65R600E6
IPA65R600E6
IPD65R600E6
IPL65R660E6
800V CoolMOS™ C3
ID
[A]
RDS(on)
[mΩ]
TO-220
TO-262
(I2PAK)
TO-263
(D2PAK)
TO-220 FullPAK
TO-247
TO-252
(DPAK)
SPW55N80C3
54.9
85
17.0
290
SPP17N80C3
11.0
450
SPP11N80C3
8.0
650
SPP08N80C3
6.0
900
SPP06N80C3
SPA06N80C3
SPD06N80C3
4.0
1300
SPP04N80C3
SPA04N80C3
SPD04N80C3
2.0
2700
SPP02N80C3
SPA02N80C3
SPD02N80C3
SPB17N80C3
SPI08N80C3
SPA17N80C3
SPW17N80C3
SPA11N80C3
SPW11N80C3
SPA08N80C3
900V CoolMOS™ C3
ID
[A]
RDS(on)
[mΩ]
36.0
120
TO-220
TO-262
(I2PAK)
TO-263
(D2PAK)
TO-220 FullPAK
TO-247
TO-252
(DPAK)
IPW90R120C3
10.0-15.0
340
IPP90R340C3
IPI90R340C3
IPB90R340C3
IPA90R340C3
IPW90R340C3
11.0
500
IPP90R500C3
IPI90R500C3
IPA90R500C3
6.9
800
IPP90R800C3
IPI90R800C3
IPA90R800C3
IPW90R500C3
IPW90R800C3
5.7
1000
IPP90R1K0C3
IPI90R1K0C3
IPA90R1K0C3
IPW90R1K0C3
3.1-5.1
1200
IPP90R1K2C3
IPI90R1K2C3
IPA90R1K2C3
IPW90R1K2C3
IPD90R1K2C3
83
600V CoolMOS™ P6
ID
[A]
53.5
37.9
30.0
10.4-23.8
9.5-20.2
19.2
8.6-16.8
15.9
7.7-13.8
7.0-12.0
6.5-10.6
4.9-7.3
6.7
RDS(on)
[mΩ]
41
70
99
125
160
180
190
210
230
255
280
330
380
600
650
TO-220
TO-263
(D2PAK)
TO-220 FullPAK
TO-247
IPB60R160P61)
IPA60R099P6
IPA60R125P6
IPA60R160P6
IPW60R041P6
IPW60R070P6
IPW60R099P6
IPW60R125P6
IPW60R160P6
IPP60R190P6
IPB60R190P61)
IPA60R190P6
IPW60R190P6
IPP60R230P6
IPB60R230P61)
IPA60R230P6
IPW60R230P6
IPP60R280P6
IPP60R330P6
IPP60R380P6
IPP60R600P6
IPB60R280P61)
IPB60R330P61)
IPB60R380P61)
IPB60R600P61)
IPA60R280P6
IPA60R330P6
IPA60R380P6
IPA60R600P6
IPW60R280P6
IPW60R330P6
IPP60R099P6
IPP60R125P6
IPP60R160P6
TO-247 4pin
TO-252
(DPAK)
ThinPAK 5x6
ThinPAK 8x8
IPZ60R041P61)
IPZ60R070P61)
IPZ60R099P61)
IPZ60R125P61)
IPL60R180P6
IPL60R210P6
IPL60R255P6
IPD60R380P6
IPD60R600P6
IPL60R650P6S
650V CoolMOS™ C7
ID
[A]
RDS(on)
[mΩ]
75.0
18.0-46.0
15.0-33.0
28.0
12.0-24.0
19
45
65
70
95
99
125
130
190
195
225
230
10.0-18.0
15.0
8.0-13.0
12.0
7.0-11.0
10.0
TO-220
TO-263
(D2PAK)
TO-220 FullPAK
TO-247
TO-247 4pin
IPP65R065C7
IPB65R045C7
IPB65R065C7
IPA65R045C7
IPA65R065C7
IPW65R019C7
IPW65R045C7
IPW65R065C7
IPZ65R019C7
IPZ65R045C7
IPZ65R065C7
IPP65R095C7
IPB65R095C7
IPA65R095C7
IPW65R095C7
IPZ65R095C7
IPP65R125C7
IPB65R125C7
IPA65R125C7
IPW65R125C7
IPP65R190C7
IPB65R190C7
IPA65R190C7
IPW65R190C7
IPP65R225C7
IPB65R225C7
IPA65R225C7
TO-252
(DPAK)
ThinPAK 8x8
IPL65R070C7
IPL65R099C7
IPL65R130C7
IPD65R190C7
IPL65R195C7
IPD65R225C7
IPL65R230C7
650V CoolMOS™ CFD2
ID
[A]
RDS(on)
[mΩ]
TO-220
TO-263
(D2PAK)
TO-220 FullPAK
TO-247
TO-252
(DPAK)
68.5
41
IPW65R041CFD
43.3
80
IPW65R080CFD
31.2
110
IPP65R110CFD
IPI65R110CFD
IPB65R110CFD
IPA65R110CFD
IPW65R110CFD
22.4
150
IPP65R150CFD
IPI65R150CFD
IPB65R150CFD
IPA65R150CFD
IPW65R150CFD
21.3
165
17.5
190
IPP65R190CFD
IPI65R190CFD
IPB65R190CFD
IPA65R190CFD
IPW65R190CFD
IPP65R310CFD
IPI65R310CFD
IPB65R310CFD
IPA65R310CFD
IPW65R310CFD
IPP65R420CFD
IPI65R420CFD
IPB65R420CFD
IPA65R420CFD
IPW65R420CFD
IPD65R420CFD
IPP65R660CFD
IPI65R660CFD
IPB65R660CFD
IPA65R660CFD
IPW65R660CFD
IPD65R660CFD
ThinPAK 8x8
IPL65R165CFD
16.1
210
11.4
310
10.9
340
8.7
420
8.3
460
6.0
660
5.8
725
3.9
950
IPD65R950CFD
3.2
1400
IPD65R1K4CFD
IPL65R210CFD
IPL65R340CFD
IPL65R460CFD
1) Coming Q3 2015
84
TO-262
(I2PAK)
IPL65R725CFD
CoolMOS™ Automotive
Product Type
RDS(on) @ TJ = 25°C
VGS = 10V
[mΩ]
ID (max) @ TJ = 25°C
[A]
IDpuls (max)
[A]
VGS(th) (min-max)
[V]
QG (typ)
[nC]
RthJC (max)
[K/W]
Package
105
31
93
-20 … 20
60
0,5
TO-263
IPB60R199CPA
199
16
51
-20 … 20
32
0,9
TO-263
IPB60R299CPA
299
11
34
-20 … 20
22
1,3
TO-263
IPP60R099CPA
105
31
93
-20 … 20
60
0,5
TO-220
IPW60R045CPA
45
60
230
-20 … 20
150
0,29
TO-247
IPW60R075CPA
75
39
130
-20 … 20
87
0,4
TO-247
IPW60R099CPA
105
31
93
-20 … 20
60
0,5
TO-247
IPI60R099CPA
105
31
93
-20 … 20
60
0,5
TO-262
IPB60R099CPA
HV – CoolMOS™
600V CoolMOS™ CPA Product Portfolio
650V CoolMOS™ CFDA Product Portfolio
Product Type
RDS(on) @ TJ = 25°C
VGS = 10V
[mΩ]
ID (max) @ TJ = 25°C
[A]
IDpuls (max)
[A]
VGS(th) (min-max)
[V]
QG (typ)
[nC]
RthJC (max)
[K/W]
Package
IPD65R420CFDA
420
8,7
27
3.5...4.5
32
1,5
TO-252
IPD65R660CFDA
660
6
17
3.5...4.5
20
2
TO-252
IPB65R110CFDA
110
31,2
99,6
3.5...4.5
11
0,45
TO-263
IPB65R150CFDA
150
22,4
72
3.5...4.5
86
0,64
TO-263
IPB65R190CFDA
190
17,5
57,2
3.5...4.5
68
0,83
TO-263
IPB65R310CFDA
310
11,4
34,4
3.5...4.5
41
1,2
TO-263
IPB65R660CFDA
660
6
17
3.5...4.5
20
2
TO-263
IPP65R110CFDA
110
31,2
99,6
3.5...4.5
11
0,45
TO-220
IPP65R150CFDA
150
22,4
72
3.5...4.5
86
0,64
TO-220
IPP65R190CFDA
190
17,5
57,2
3.5...4.5
68
0,83
TO-220
IPP65R310CFDA
310
11,4
34,4
3.5...4.5
41
1,2
TO-220
IPP65R660CFDA
660
6
17
3.5...4.5
20
2
TO-220
IPW65R048CFDA
48
63,3
228
3.5...4.5
27
0,25
TO-247
IPW65R080CFDA
80
43,3
127
3.5...4.5
16
0,32
TO-247
IPW65R110CFDA
110
31,2
99,6
3.5...4.5
11
0,45
TO-247
IPW65R150CFDA
150
22,4
72
3.5...4.5
86
0,64
TO-247
IPW65R190CFDA
190
17,5
57,2
3.5...4.5
68
0,83
TO-247
85
CoolMOS™ Nomenclature
Naming System
Power MOSFETs (Naming System Until 2005)
S
P
P
20
N
60
Company
S = Formerly Siemens
C
3
Specifications
C3 = CoolMOSTM C3
S5 = CoolMOSTM S5
Device
P = Power MOSFET
Breakdown Voltage
Divided by 10 (60 x 10 = 600V)
Package Type
A = TO-220 FullPAK
B = TO-263 (D2PAK)
D = TO-252 (DPAK)
I = TO-262 (I2PAK)
N = SOT-223
P = TO-220
U = TO-251 (IPAK)
W = TO-247
Z = TO-247 4pin
Technology
N = N-Channel Transistors
Continuous Drain Current
(@ TC = 25°C) [A]
Power MOSFETs (Naming System From 2005 Onwards)
I
P
P
60
099
R
C
P
Company
I = Infineon
Series Name
in this case CoolMOSTM CP for
PFC and PWM applications
Device
P = Power MOSFET
RDS(on) [mΩ]
Package Type
A = TO-220 FullPAK
B = TO-263 (D2PAK)
D = TO-252 (DPAK)
I = TO-262 (I2PAK)
L = ThinPAK 8x8
N = SO-T223
P = TO-220
U = TO-251 (IPAK)
W = TO-247
Z = TO-247 4pin
R = RDS(on)
Breakdown Voltage
Divided by 10 (60 x 10 = 600V)
Automotive MOSFETs
I
86
P
P
60
R
099
C
P
A
Infineon
Automotive
Power MOSFET
Series Name
CoolMOS™ CP and CoolMOS™ CFD
Package Type
B = PG-TO263 (D2PAK)
I = PG-TO262 (I2PAK)
P = PG-TO220
W = PG-TO247
RDS(on) [m]
R = RDS(on)
Breakdown Voltage
Divided by 10 (60 x 10 = 600V)
CoolMOS™ Support
Expert Support for CoolMOS™
www.infineon.com/coolmos-500V-650V
www.infineon.com/coolmos-800V-900V
Latest Videos
High Voltage Evaluation Boards
www.infineon.com/300w-pfc-evaluationboard
www.infineon.com/2kW-zvs-evaluationboard
www.infineon.com/600w-llc-evaluationboard-a
www.infineon.com/600w-llc-evaluationboard-d
Datasheets
87
Silicon Carbide Diodes
Improve Efficiency and Solution Costs
Silicon Carbide (SiC) devices belong to the so-called wide band gap semiconductor group, which offers a number of
attractive characteristics for high voltage power semiconductors when compared to commonly used Silicon (Si). In
particular, the much higher breakdown field strength and thermal conductivity of SiC allow creating devices which
outperform by far the corresponding Si ones, and enable reaching otherwise unattainable efficiency levels.
Silicon Carbide Schottky Diodes
The differences in material properties between SiC and Silicon limit the fabrication of practical Silicon unipolar diodes
(Schottky diodes) to a range up to 100V – 150V, with relatively high on-state resistance and leakage current. On the
other hand, SiC Schottky barrier diodes (SBD) can reach a much higher breakdown voltage. Infineon offers products up
to 1200V as discrete and up to 1700V in modules.
Features
Benefits
System efficiency improvement
compared to Si diodes
Reduced cooling requirements
Enabling higher frequency/
increased power density
Higher system reliability due to
lower operating temperature
Reduced EMI
Benchmark switching behavior
No reverse recovery charge
Temperature independent
I [A]
switching behavior
High operating temperature
(Tj, max 175°C)
10
8
6
4
2
0
-2
-4
-6
-8
-10
0.07
T=125°C, VDC=400V, IF=6A, di/dt=200 A/µs
Applications
Server
Telecom
Solar
UPS
PC Silverbox
Motor Drives
Lighting
Reverse Recovery Charge of SiC versus Silicon Devices
The majority carrier characteristics of the device imply no reverse recovery
charge and the only contribution to the switching losses comes from the tiny
displacement charge of capacitive nature. In the same voltage range, Silicon
devices show a bipolar component resulting in much higher switching losses.
Here the comparison between various 600V devices.
0.25
0.16
0.19
0.22
Time [µs]
SiC Schottky diode: SDB06S60
Ultrafast Si pin diode
Si pin double diode (2*300V)
0.1
0.13
Improved System Efficiency (PFC in CCM Mode Operation, Full Load, Low Line)
The fast switching characteristics of the SiC diodes provide clear efficiency
improvements at system level.
The performance gap between SiC and high-end Silicon devices increases
with the operating frequency.
95.0
Efficiency [%]
94.5
94.0
93.5
93.0
92.5
92.0
91.5
91.0
60
120
180
Switchting Frequency [kHz]
IFX SiC 6A
88
Comp. 1 6A
240
Comp. 2 6A
Infineon is the world’s first SiC discrete power supplier. Long market presence and experience enable Infineon to
deliver highly reliable, industry-leading SiC performance. With over 10 years pioneering experience in developing
and manufacturing SiC diodes, Infineon’s latest thinQ!™ SiC Schottky Diodes Generation 5 family sets benchmark in
quality, efficiency and reliability.
650V SiC thinQ!™ Generation 5 Schottky Diodes: Best Price/Performance
This product family has been optimized from all key aspects including junction structure, substrate, and die attach. It
represents a well-balanced product family which offers state of the art performance and high surge current capability
at competitive cost level.
p+
p+
p+ p+
Ti
p+
epi
layer
field stop layer
SiC substrate
110µm
backside & packaging
diffusion soldering
Substrate: Thin Wafer Technology
On the substrate level, Infineon introduced thin
wafer technology, at the later stage of our SiC
diode production thin wafer process is used to
reduce the wafer thickness by about 2/3, this
significantly reduces the substrate resistance
contribution thus improve both VF and
thermal performance.
Die Attach: Diffusion Soldering
On the backside and package level diffusion
soldering is introduced which significantly
improves the thermal path between lead frame and
the diode, enhancing the thermal performance.
With the same chip size and power dissipation, the
junction temperature is reduced by 30°C.
ent
35
ge c
urr
30
25
sur
IF (A)
Al
40
20
15
10
5
0
0.00
2.00
4.00
8.00
10.00
12.00
14.00
VF (V)
Combined
characteristic
Schottky diode
forward characteristic
Bipolar pn diode
forward characteristic
60
50
IF [A/mm2]
Al wire bond
Junction: Merged PN Structure
On the junction level, it has an optimized merged
PN structure. Compared to competitors Infineon
SiC diode has additional P doped area, together
with the N doped EPI layer, it forms a PN junction
diode. Thus it is a combination of Schottky diode
and PN junction diode. Under normal conditions,
it works like a standard Schottky diode. Under
abnormal conditions, such as lighting, AC line
drop-out, it works like a PN junction diode. At
high current level, the PN junction diode has
significantly lower VF than Schottky diode, this
leads to less power dissipation, thus significantly
improving the surge current capability.
Silicon Carbide
Innovation: Optimized Junction, Substrate and Die Attach
Infineon Generation 5 SiC Schottky diode is optimized with regard to all key aspects relevant for high power and high
efficiency SMPS applications.
40
30
20
10
0
0
2
Generation 5
4
VF [V]
6
8
Generation 2, 3
Diffusion
Soldering
RthJC=2.0 K/W
RthJC=1.5 K/W
89
SiC Generation 5
Optimum Balance of Efficiency and Surge Current Capability
8A SiC Diode Comparison from Different Suppliers
Figure of Merit (Qc x VF / nC-V) [Efficiency]
60
Performance frontier
50
40
30
20
Balance and Trend
10
0
0
20
40
60
80
100
120
Surge current capability
Infineon
Comp. 1
Comp. 2
Comp. 3
Comp. 4
Generation 5 SiC Schottky diode offers the optimum efficiency and ruggedness balance. Lower VF means lower
conduction loss and lower Qc means lower switching loss. Qc x VF is the Figure of Merit for efficiency and comparison
indicates that Generation 5 matches the best competitors on the market. In addition, SiC Generation 5 offers a surge
current robustness far better than that offered by the most efficient products. Thus under abnormal conditions this
surge current capability offers excellent device robustness. All over, SiC Generation 5 offers excellent efficiency and
surge current capability at the same time. No other SiC diode product on the market offers such good balance between
efficiency and surge current capability. Some vendors offer better efficiency but weak surge current; while others offer
better surge current but are less attractive in efficiency.
Efficiency Comparison
CCM mode PFC, high line, Pmax = 1800W, fSW = 65kHz; MOSFET: IPW65R095C7, SiC Diode: TO-220 8A
98.6
0.05
Efficiency Difference [%]
Efficiency [%]
98.4
98.2
98.0
97.8
97.6
97.4
-0.05
0.15
0
500
1000
1500
2000
0
500
Pout [W]
Generation 5
1000
1500
2000
Pout [W]
Comp. 3
Comp. 4
Generation 5
Comp. 3
Comp. 4
In terms of efficiency, 8A device has been tested in CCM PFC. The maximum output power is 1.8kW and switching
frequency is 65kHz. The left figure shows the absolute efficiency as a function load power, while right figure shows
efficiency difference compared to our Generation 5 SiC diode. It is obvious Infineon Generation 5 delivers better
efficiency over full load range.
90
SiC Generation 5
System Solution for PFC
Generation 2
C7
P6
Generation 3
Generation 5
Best-in-Class
Silicon Carbide
Price
Efficiency
The thinQ!™ SiC Schottky diode Generation 5 is in perfect combination with Infineon’s CoolMOS™ for best performance
and efficiency in PFC stages. The target applications in this case are Telecom, Server, etc. We recommend thinQ!™ SiC
Schottky diode Generation 5 for new designs. The selection of CoolMOS™ and thinQ!™ depends on target
efficiency and cost.
Price/ Performance
Si
Performance (efficiency, density)
Design-in effort
Easy
Hard
Infineon System Solution in PFC
CCM PFC
Power [W]
CoolMOS™
RDS(on) [mΩ]
thinQ!™ SiC Diode
IF [A]
Server
Telecom
Server and Telecom
500
1 x 190
1 x 190
1 x (4~6)
750
1 x 99/2 x 190
2 x 190
1 x (6~8)
1200
2 x (70~99)
2 x 99
2 x (6~8)/1 x (12~16)
2000
2700
3000
1 x (8~10)
3 x (41~80)
2 x (8~10)/1 x (16~20)
2 x 65/1 x 19
2 x (8~10)/1 x (16~20)
RDS(on) depends on target efficiency level, switching frequency and thermal management
SiC diode current level depends on switching frequency, current limitation and thermal management
New 1200V SiC thinQ!™ Generation 5 Schottky Diodes : High Efficiency/Compact
By using hybrid Si IGBT/SiC diode sets, designers of industrial applications will gain flexibility for system optimization
compared to Silicon based solution. The keys are reduced cooling requirements, higher output power or higher
switching frequency at high efficiency. In the new 1200V thinQ!™ Generation 5 SiC Schottky diodes, the zero reverse
recovery charge comes with a reduction of forward voltage and extended surge current capability compared to
previous generation. The ultra-low forward voltage, even at high operating temperature, results in 30% static loss gain
versus previous generation during full-load condition. Implementing Generation 5 thinQ!™ diodes in combination with
Infineon’s 1200V HighSpeed 3 IGBT, designers can achieve outstanding system level performance and reliability.
91
SiC Generation 5
Key Benefits 1200V SiC vs. 1200V Si diodes
Key Features 1200V SiC vs. 1200V Si diodes
No reverse recovery charge
No voltage overshoots due to zero forward recovery
Switching behavior independent from forward current,
switching speed and temperature
Virtually no diode switching losses and thereby lower
Si IGBT losses → high system efficiency
Reduced EMI
Higher system reliability
Higher switching frequency for high efficiency
Key Features 1200V Gen5 vs. 1200V Gen2
Low forward voltage (VF)
Mild positive temperature dependency of VF
Extended surge current capability
Excellent thermal performance
Up to 40A rated diode
Key Benefits 1200V G5 vs. 1200V G2
Higher efficiency through up to 30% gain in diode losses
Reduced cooling requirements through lower diode
losses and lower case temperatures
Better system reliability through extended surge
current up to 14x nominal current

Applications
Solar Inverters
UPS
3-phase SMPS
Motor Drives
Surge Current: 10A diodes
16
2.4
14
2.2
12
Lowest VF - Level
with Generation 5
2.0
1.8
+60%
IFSM/ Inom
Forward Voltage @ Inom [V]
Forward Voltage: 30A diodes
2.6
+31%
+21%
1.4
+29%
14 x Inom Surge
current with Generation 5
9
10
8
5
6
1.6
5
4
2
1.2
1.0
14
Generation 2
Generation 5
Comp. 1
Tj = 25°C
0
Comp. 2
Generation 2
Generation 5
Comp. 1
Comp. 2
Tj = 150°C
Front-End Booster Stage of a Photovoltaic Inverter: Vin = 500V, Vout = 800V, 20kHz, Tj = 125 °C
Diode Losses
Diode Losses %
0.50
50
0.43%
0.40
Losses [% from Pout]
Losses [W]
40
30
20
10
0
0
20
40
60
80
100
0.20
0.10
0.19%
0.22%
0.20%
1 kW
5kW
Nominal Power [%]
IDW10S120
92
0.31%
0.27%
0.30
10kW
Output Power
IDW10G120C5
IDW10S120
IDW10G120C5
SiC CoolSiC™
CoolSiC™ 1200V SiC JFET & Direct Drive JFET Topology
Features
Extremely low and temperature independent
switching losses
Excellent high load efficiency compared to IGBTs
Monolithically integrated SiC body diode
Benefits
Reduced cooling effort due to reduced losses
Increase of the operating frequency with consequent
shrink of passive components and savings at system level
Increased power density
Dedicated driver for direct JFET control

High reliability due to missing gate oxide
Structural elements similar to SiC diodes,
with > 10 years proved experience in manufacturing
Silicon Carbide
CoolSiC™ 1200V SiC JFET family, in combination with the proposed Direct Drive JFET Topology, represents Infineon’s
leading edge solution to bring actual designs towards new and so far unattainable efficiency borders. The SiC JFET
offers Best-in-Class switching loss behavior with respect to 1200V IGBT with comparable conduction losses available.
Utmost efficiency at highest power density levels can be reached also thanks to Infineon CoolSiC™ monolithically
integrated body diode, showing a switching performance comparable with that of an external SiC Schottky barrier
diode. The Infineon SiC JFET, with its ultrafast SiC body diode and dedicated driver, represents the best solution in
Solar, UPS and Industrial Drives applications by combining best performance, reliability, safety and ease-of-use.
Increase of output power, reduction of specific system cost
Applications
Solar
UPS
Industrial Drives
C V CC
SGND
Controller
Rg_J
JFDrv
VCC
GND1
MDrv
IN
VReg
EN
CLJFG
Rg_M
C V_Reg
LV MOSFET
VCC1
+5V to SGND
CoolSiC™
JFET
Drain cascode
C VEE2
VEE2
BSEN
-25 V to VCC2
Source cascode
1EDI30J12Cx
CoolSiC™ 1200V JFET Portfolio and Recommended Driver/LV MOS for Direct Drive JFET Topology
RDS(on) [mΩ]
Voltage
1200
1200
Sales name
JFET Package
Driver
Driver Package
LV MOS
LV MOS Package
70
IJW120R070T1
TO-247
1EDI30J12CL/CP
DSO-16-20/19-4
BSC030P03NS3 G
SuperSO8
100
IJW120R100T1
TO-247
1EDI30J12CL/CP
DSO-16-20/19-4
BSC030P03NS3 G
SuperSO8
70
IJC120R070T1
Bare die
1EDI30J12CL/CP
DSO-16-20/19-4
IPC099P03N
Bare die
100
IJC120R100T1
Bare die
1EDI30J12CL/CP
DSO-16-20/19-4
IPC099P03N
Bare die
93
SiC Diodes Product Table
650V Generation 5
TO-220 R2L
IF
[A]
TO-247
Dual Die
TO-247
DPAK DML
D2PAK R2L
ThinPAK 8x8
2
IDH02G65C5
IDK02G65C5
3
IDH03G65C5
IDK03G65C5
4
IDH04G65C5
IDK04G65C5
5
IDH05G65C5
IDK05G65C5
6
IDH06G65C5
IDK06G65C5
IDL06G65C5
8
IDH08G65C5
IDK08G65C5
IDL08G65C5
9
IDH09G65C5
IDK09G65C5
10
IDH10G65C5
IDW10G65C5
IDK10G65C5
IDL10G65C5
12
IDH12G65C5
IDW12G65C5
IDK12G65C5
IDL12G65C5
16
IDH16G65C5
IDW16G65C5
20
IDH20G65C5
IDW20G65C5B*
IDL02G65C5
IDL04G65C5
IDW20G65C5
24
IDW24G65C5B*
30/32
IDW32G65C5B*
IDW30G65C5
40
IDW40G65C5B*
IDW40G65C5
600V Generation 3
TO-220 R2L
IF
[A]
TO-247
Dual Die
TO-247
DPAK DML
3
IDH03SG60C
IDD03SG60C
4
IDH04SG60C
IDD04SG60C
5
IDH05SG60C
IDD05SG60C
6
IDH06SG60C
IDD06SG60C
8
IDH08SG60C
IDD08SG60C
9
IDH09SG60C
IDD09SG60C
10
IDH10SG60C
IDD10SG60C
12
IDH12SG60C
IDD12SG60C
D2PAK
ThinPAK 8x8
D2PAK DML
ThinPAK 8x8
600V Generation 2
TO-220 R2L
IF
[A]
4
IDH04S60C**
5
IDH05S60C**
6
IDH06S60C**
8
IDH08S60C**
10
IDH10S60C**
12
IDH12S60C**
16
IDH16S60C**
*to be released in 2015
**not for new designs
94
TO-247
Dual Die
TO-247
DPAK DML
IDB06S60C**
IDB10S60C**
Silicon Carbide
SiC Diodes Product Table
1200V Generation 5
IF
[A]
TO-220 R2L
TO-247
Dual Die
TO-247
DPAK DML
2
IDH02G120C5*
IDM02G120C5*
5
IDH05G120C5*
IDM05G120C5*
8
IDH08G120C5*
10
IDH10G120C5*
IDW10G120C5B
15
IDH15G120C5*
IDW15G120C5B
D2PAK DML
ThinPAK 8x8
D2PAK DML
ThinPAK 8x8
IDM08G120C5*
20
IDW20G120C5B
40
IDW40G120C5B
1200V Generation 2
IF
[A]
TO-220 R2L
2
IDH02SG120
5
IDH05S120
8
IDH08S120
TO-247
Dual Die
TO-247
10
IDH10S120
IDW10S120**
15
IDH15S120
IDW15S120**
20
DPAK DML
IDW20S120**
95
SiC Diodes Nomenclature
Naming System
thinQ!™ Silicon Carbide Schottky Diodes Generation 2 and 3
I
D
H
X
S
G
X
C
Company
I = Infineon
Specifications
C = Surge current stable
Device
D = Diode
Breakdown Voltage
60 = 600V
120 = 1200V
Package Type
D = DPAK
H = TO-220 real 2 pin
B = D2PAK
D = DPAK = TO-220
V = TO-220FP
W = TO-247
G = Low thermal resistance
(diffusion soldering)
Technology
S = SiC Diode
Continuous Forward Current
[A]
thinQ!™ Silicon Carbide Schottky Diodes Generation 5
I
D
H
X
G
X
C
5
B
Company
I = Infineon
B = Dual die
Device
D = Diode
Series Name
5 = Generation 5
Package Type
H = TO-220 real 2 pin
W = TO-247
K = D2PAK R2L
L = ThinPAK 8x8
M = DPAK DML
Specifications
C = Surge current stable
Continuous Forward Current
[A]
G = Low thermal resistance
Breakdown Voltage
65 = 650V
120 = 1200V
CoolSiC™ Silicon Carbide JFET
I
Company
I = Infineon
96
J
W
120
R
XXX
T1
Series name
RDS(on) [mΩ]
Device
J = JFET
R = RDS(on)
Package Type
W = TO-247
Breakdown Voltage
120 = 1200V
SiC Diodes Support
Expert Support for Silicon Carbide
www.infineon.com/sic-datasheets
www.infineon.com/sic-material
www.infineon.com/coolsic-datasheets
www.infineon.com/coolsic-material
Latest Videos
www.infineon.com/sic
Silicon Carbide Evaluation Boards
www.infineon.com/coolsic-evaluationboard
Datasheets
97
Discrete IGBT
IGBT
Market Leadership Through Groundbreaking Innovation and Application Focus
Striving for the highest standards in performance and quality, Infineon offers a comprehensive application
specific discrete IGBT portfolio that is second to none.
Overview Discrete IGBTs
Product Portfolio
TO-252
DPAK
TO-263
D2PAK
TO-220
TO-220
FullPAK
TO-247
TO-247 4pin
TO-247PLUS
Package Options
NEW!
Voltage Class
600V, 650V, 1100V, 1200V, 1350V, 1600V
Configuration
DuoPack (with diode), Single IGBT
Continuous Collector
Current TC = 100°C
2A - 120A
New products are application specific developed to achieve highest value.
New Best-in-Class Technologies and Applications
Technology
TRENCHSTOP™ 5
H5 F5 650V
TRENCHSTOP™ 5
L5 650V
Rapid Diode
650V
RC-H5
650V/1200V/1350V
WR5
650V
RC-Drives
RC-Drives Fast
600V
98
Application
NEW!
Discrete IGBT
New Generation Reverse Conducting IGBT
The newest generation of reverse conducting IGBTs has been optimized for the unique requirements of
Induction Cooking applications. With a monolithically integrated reverse conducting diode, the RC-H5 family sets the
industry standard for performance in soft switching applications.
For single switch systems, RC-H5 is available with 1200V and 1350V blocking voltage. These 20A devices are the next
generation of the successful RC-H3 family, and once again set a new industry benchmark. With up to 30% reduction in
switching losses, they allow for higher system switching frequencies and improved efficiency.
For half bridge designs, an entirely new family of RC-H5 650V devices was created by building on the industry leading
performance of the TRENCHSTOP™ 5 and the application specific technology of earlier reverse conducting IGBTs.
The result is a family of products optimized for the lowest VCE(sat) for best efficiency and thermal performance, and
additionally with low Eoff for improved operation at switching frequencies up to 40kHz.
IGBT Power Losses
Pin = 1.8kW and fsw = 40kHz
28.6
Discrete IGBTs
30.0
23.8
25.0
21.8
Losses (W)
20.0
16.9
15.0
10.0
5.0
NEW!
0.0
IHW40N65R5
IHW40N60RF
Pcond
IHW40N60R
Psw
IHW40T60
Pdiode
Features
Reduced losses up to 30%
Soft current turn-off waveforms for low EMI
Higher blocking voltages in 650V and 1350V devices
Tj(max) = 175°C
650V: Hard switching capable with commutation
rugged diode
Applications
Induction Cooking Stoves
Inverterized Microwave Ovens
Induction Rice Cookers
Induction Water Heaters
Other Resonant Switching Applications
Benefits
Improved performance in systems with increased
switching frequency
Lowest power dissipation for best system efficiency
Better thermal management for higher reliability
Lower EMI filtering requirements
99
TRENCHSTOP™ 5
TRENCHSTOP™ 5
In terms of switching and conduction losses, there is no other IGBT on the market that can match the performance
of the TRENCHSTOP™ 5. TRENCHSTOP™ 5 is the next generation of thin wafer technology for applications switching
>10kHz. Wafer thickness has been reduced by >25%, which enables a dramatic improvement in both switching
and conduction losses, whilst providing a breakthrough voltage of 650V. Translating this Best-in-Class efficiency
application tests show >25% reduction in package temperature when performing a plug and play approach with
Infineon’s previous Best-in-Class IGBT, the “HighSpeed 3”. Even more revolutionary, when replacing a TO-247
HighSpeed 3 IGBT with the TRENCHSTOP™ 5 in a TO-220, case temperatures are >10% lower for the TRENCHSTOP™
5. The quantum leap of efficiency improvement provided by the TRENCHSTOP™ 5 opens up new opportunities for
designers to explore.
PFC Efficiency - Low Line Vin = 115V
Boost Diode = Ultrafast Si 15A unless specified
96.0
95.5
Efficiency [%]
95.0
1.7%
F5 + SiC, Rgoff = 20Ω
94.5
0.7%
94.0
H5 RG,off = 5Ω
93.5
H3 RG,off = 5Ω
93.0
92.5
92.0
91.5
91.0
0
100
200
300
400
500
600
700
800
Pout [W]
IGP40N65F5, RG,off = 20Ω, SiC Boost Diode
IGP40N65H5, RG,off = 5Ω
Features
650V breakthrough voltage
Compared to Infineon’s Best-in-Class “HighSpeed
3” family
–– Factor 2.5 lower Qg
–– Factor 2 reduction in switching losses
–– 200mV reduction in VCE(sat)
Co-packed with Infineon’s new “Rapid” Si-diode
technology
Low Coss/Eoss
Mild positive temperature coefficient VCE(sat)
Temperature stability of VF
100
IKW40N60H3, RG,off = 5Ω
Benefits
Best-in-Class efficiency, resulting in lower junction
and case temperature leading to higher
device reliability
50V increase in the bus voltage possible without
compromising reliability
Higher power density designs
TRENCHSTOP™ 5
First step H5 Variation – 10kHz → 100kHz
Required for UPS where
full recirculating current is present
Full rated diode
Qrr versus VF
Rapid 1 mostly chosen
because of the higher Qrr.
This acts snubber capacitor
Rapid 2
Half rated diode
H5/F5
Rapid 1
TO-220
TO-247
TO-247 4pin
Welding / PFC
Standard high power
applications where second
sourcing is more important
than performance
Discrete IGBTs
Absolute pure performance Eon
improved by up to 40%
compared to TO-247 package
Low VCE(sat) Variation – 50Hz → 20kHz
Primary focus on UPS for
full recirculating current
Full rated diode
L5
Rapid 2
Both diodes selected, but
portfolio varies according
to current class
TO-247
Rapid 1
Standard high power
applications where second
sourcing is more important
than performance
TO-247 4pin
Absolute pure performance Eon
improved by up to 40%
compared to TO-247 package,
lowest conduction and switching losses
Zero Current Switching Optimized Variation – 18kHz → 60kHz
Universal device for ZCS turn-off
Full rated diode
Impressive VF & Qrr
Rapid 2
WR5
TO-247
Standard high
power applications
101
Consumer Drives
RC-Drives and RC-Drives Fast
The RC-Drives (RC-D) IGBT technology is a cost optimized solution for permanent magnet synchronous and brushless
DC motors in the price-sensitive consumer drives market. The RC-Drives Fast (RC-DF) family extension was developed
to provide outstanding performance at switching frequencies above 8kHz
IGBT and diode were optimized to reduce losses at frequencies of 18 - 30kHz
Audible noise can be reduced to absolutely silent level for high efficiency inverters operating above 16kHz
Highly precise vector control techniques can be used to provide more torque in operation at low speed and high performance dynamics in the control at high speed. Furthermore, the small size of RC-Drives allows high power density
designs with less system costs.
Eoff vs. VCE(sat)
Rs = 40Ω, Ic = 4A, Tj = 25°C and 175°C
0.30
0.25
switching frequency
30kHz
Eoff (mJ)
0.20
0.15
0.10
RC-Drives Fast
8kHz
-61% reduction
in Eoff at 175°C
0.05
4kHz
RC-Drives
0
1.5
1.6
1.7
1.8
1.9
2.0
2.1
2.2
2.3
cost
2.4
VCE(sat) (V)
RC-Drives (25°C)
RC-Drives (175°C)
RC-Drives Fast (25°C)
RC-Drives Fast (175°C)
Features
Optimized Eon, Eoff and Qrr for up to 20% lower switching losses
Operating range from DC to 30kHz
Max. junction temperature 175°C
Short circuit capability of 5µs
Very tight parameter distribution
Best-in-Class current versus package
size performance
Smooth switching performance leading to
low EMI levels
Complete product portfolio and PSpice Models
on the internet
Up to 60% space saving on the PCB
Higher reliability due to monolithically
integrated IGBT & diode due to less
thermal cycling during switching
Applications RC-Drives (fsw < 4kHz)
Fridge Compressors
Pumps
Fans
Aircon Compressors
Applications RC-Drives Fast (4kHz < fsw < 30kHz)
Washing Machines
Benefits
Excellent cost/performance for hard
switching applications
Outstanding temperature stability
Very good EMI behavior
102
General Purpose Inverters
Aircon Compressors
Hard Switching Topologies up to 1.0kW
Automotive IGBT
Discrete IGBTs
TRENCHSTOP™ 60TA – Well Established and Known in the Automotive World
(AEC-Q qualified)
Infineon TRENCHSTOP™ 60TA IGBT technology due to combination of trench top-cell and field stop concept leads to
significant improvement of static as well as dynamic performance of the device. Combination of IGBT with soft recovery Emitter Controlled-Diode further minimizes the turn-on losses. The highest efficiency is reached due to the best
compromise between switching and conduction losses.
Features
Low VCE(sat) for low conduction losses
Low EMI emissions
Very soft, fast recovery anti-parallel diode
Positive temp. coefficient in VCE(sat)
Benefits
Suitable for low switching frequencies
High temperature capable
High ruggedness, temperature stable behavior
High device reliability
Applicable for high level of device paralleling
Applications
Main Inverter/Drive Train
AUX Inverter (AirCon Compressor, PTC Heater)
Motor Drives

Product Portfolio TRENCHSTOP™ 60TA
Technology
Continuous collector
current @ TC=100°C
IGBT + Diode
Current Rating
600V
TO-263
D²PAK
TO-220
TO-247
TO-247PLUS
20 A
IKB20N60TA
IKP20N60TA
IKW20N60TA
-
30 A
-
-
IKW30N60TA
-
50 A
-
-
IKW50N60TA
-
75 A
-
-
IKW75N60TA
-
100 A
-
-
-
IKQ100N60TA
120 A
-
-
-
IKQ120N60TA
103
TRENCHSTOP™ 5 Auto
TRENCHSTOP™ 5 AUTO – A Revolution in the IGBT World
Infineon’s brand new TRENCHSTOP™ 5 AUTO IGBT technology redefines “Best-in-Class” IGBT by providing unmatched
performance in terms of efficiency for hard switching applications. It is a revolution in the IGBT world to match the
market’s highest efficiency demand of tomorrow, means when highest efficiency, lower system cost and increased reliability is required, TRENCHSTOP™ 5 is the only option. It provides drastic reduction in switching and conduction losses.
The TRENCHSTOP™ 5 AUTO is available in two versions - H5 (high speed) and F5 (highest efficiency).
Key Features
650V blocking voltage
Very low conduction and switching losses
Very low junction and case temperature
High power density design
Mild positive temperature coefficient in VCE(sat)
Benefits
50V higher blocking voltage
Highest efficiency
High device reliability
Low temperature leads to less cooling efforts
Less system costs
Applications
DC/DC Converter
DC/AC Converter
On-Board Charger
Product Portfolio TRENCHSTOP™ 5 Auto
Technology
current @ TC=100°C
Current Rating
Single IGBT
IGBT+Diode
104
650V
H5
TO-247
F5
TO-247
40A
IGW40N65H5A
IGW40N65F5A
50A
IGW50N65H5A
IGW50N65F5A
40A
IKW40N65H5A
IKW40N65F5A
50A
IKW50N65H5A
IKW50N65F5A
Reverse Conducting Drives
Reverse Conducting Drives and Drives Fast - Qualified According to AEC Q101
Features
Optimized parameters for up to 20% lower switching losses
Operating range from DC to 30kHz
Best-in-Class current versus package size performance
Smooth switching performance leading to low EMI levels
Benefits
Excellent cost/performance for hard
Outstanding temperature stability
Up to 60% space saving on the PCB
Higher reliability due to monolithically integrated IGBT
and diode due to less thermal cycling during switching
Applications RC-DA < 8kHz
Piezo Injection
HID Lighting
Pumps
Small Drives
Applications RC-DFA < 5kHz
Piezo Injection
HID Lighting
Low Power Motor Drives
Discrete IGBTs
RC-Drives IGBT technology has been developed by Infineon as a cost optimized solution by offering space saving
advantages due to monolithically integrated diode. Furthermore the technology provides outstanding performance
for smooth switching behavior and low EMI levels even at the maximum junction temperature of 175°C. This variant
enables high efficiency, especially at high speed switching up to 30kHz, while keeping the well known advantages of
the RC-Drives family. It also reduces the audible noise to an absolute silent level. The complete product family offers
high efficiency at reduced component size and high power density and leads to a reduction in terms of system costs.
Product Portfolio Reverse Conducting Drives and Drives Fast
Technology
current @ TC=100°C
Current Rating
IGBT + Diode
600V
RC-DA
TO-252 / DPAK
RC-DFA
TO-252 / DPAK
3A
--
IKD03N60RFA
4A
IKD04N60RA
IKD04N60RFA
6A
IKD06N60RA
IKD06N60RFA
10A
IKD10N60RA
IKD10N60RFA
15A
IKD15N60RA
IKD15N60RFA
105
IGBT Selection Tree
IGBT Selection Tree
Single IGBT
IGBT
IGBT+ Anti-Parallel Diode
Soft
Diode
Commutation
Hard
Frequency Range
2kHz - 20kHz
TRENCHSTOP™
>18kHz - 60kHz
HighSpeed
10kHz - 100kHz
HighSpeed
50Hz-20kHz
LowSpeed
HighSpeed 3
(H3)
TRENCHSTOP™ 5
(H5/F5)
Low VCE(sat)
TRENCHSTOP™ 5 (L5)
2kHz - 20kHz
TRENCHSTOP™
(DuoPack)
8kHz - 60kHz
RC series
(monolythic)
2kHz - 20kHz
TRENCHSTOP™
RC-Drives
(monolythic)
Voltage Range
600V
600V, 650V, 1200V
650V
600V, 1200V
IGpccN60H3
IGpccN120H3
IGpccN65H5
IGpccN65F5
IGpccN65L5
IHpccN60T
IHpccT60..
IHpccT120..
DC/DC:
Welding Inverter
Full Bridge
Solar Inverter
UPS
3 level NPC Topology,
Inner Switches
600V, 650V, 1100V,
1200V, 1350V, 1600V
600V
Part Number
IGpccN60T…
IGpccT120…
IGpccN120T2
IHpccNvvvR2
IHpccNvvvR3
IHpccN60R/RF
IHpccNvvvR5
IKpccN60R
IKpccN60RF
Application
Conduction Loss
Optimized,
Hard Switching
Topologies without
Anti-parallel Diode
AC/DC:
PFC
Welding
UPS
Solar Boost Stage
AirCon
106
Solar
Inner Switches
Welding
AC Output
(Al/Mg welding)
Induction Heating
Half Bridge Stoves
Inverterized Microwave Ovens
Multi-Function Printers
Half Bridge Resonant
(Current resonance – 600/650V)
Single Switch Cookers
(Voltage resonance - >650V)
Conduction Loss
Optimized
Solar Inverter
Asymmetrical Bridge
Symmetrical Full Bridge
Three level type I
or Three level type II
Converter
Motor Control
Three Phase Inverter
Full Bridge Inverter
Uninterruptable
Power Supply
UPS Bridge
Three level type II
Converter
IGBT Selection Tree
Automotive
Frequency Range
2kHz - 20kHz
TRENCHSTOP™
>18kHz - 60kHz
HighSpeed
10kHz - 100kHz
HighSpeed
> 18kHz - 60kHz
HighSpeed
50Hz - 20kHz
LowSpeed
DuoPack
(discrete)
HighSpeed 3
TRENCHSTOP™ 5
(H5/F5)
RC
TRENCHSTOP™ 5 (WR5)
Low VCE(sat)
2kHz - 100kHz
RC-Drives, RC-Drives Fast
TRENCHSTOP™ 60TA, TRENCHSTOP™ 5 AUTO
Voltage Range
600V, 1200V
600V, 1200V
650V
650V
600V
650V
650V
Part Number
IKpccN60dH3
IKpccN120dH3
IKpccN65dH5
IKpccN65dF5
IKpccN65dR5
IKpccN65dL5
IKpccN60RA
IKpccN60RFA
IHpccN60RA
IKpccN60TA
IKcppN65H5A
IKcppN65F5A
IGcppN65H5A
IGcppN65F5A
Discrete IGBTs
IKpccN60dT
IKpccT120…
IKpccN120dT2
Application
Conduction Loss
Optimized
Solar Inverter
Asymmetrical Bridge
Three level type I
or Three level type II
Converter
Motor Control
Uninterruptable
Power Supply
UPS Bridge
Three level type II
Converter
Switching Loss Optimized
Solar Inverter
Asymmetrical Bridge
Three level type I or
Three level type II Converter
Motor Control
Uninterruptable Power Supply
Three level type II Converter
Welding Inverter
Full Brigde
Half Bridge
AC/DC:
PFC
Welding
UPS
Solar Boost Stage
Battery Charger
SMPS
HVDC (Telecom/Data Centers)
AC/DC:
PFC
Welding
UPS
Solar Boost Stage
Battery Charger
SMPS
HVDC
(Telecom/Data Centers)
AirCon
Washing Machine
DC/DC:
Welding Inverter
Full Brigde
Half Bridge
UPS
Inner Switches
HID
Piezo Injection
Small Motor Drives
Solar
Inner Switches
PowerTrain
AUX Inverter
AirCon Compressor
PTC Heater
Welding
AC Output
(Al/Mag welding)
OnBoard Charger (OBC)
DC/DC Converter
DC/AC Converter
107
IGBT Product Table
TRENCHSTOP™ 5 Selection Tree
No
650V
Free Wheeling Diode (FWD)
Yes
50Hz - 20kHz
LowSpeed
10kHz - 100kHz
HighSpeed
50Hz - 20kHz
LowSpeed
> 18kHz - 60kHz
HighSpeed
10kHz - 100kHz
HighSpeed
Low VCE(sat)
TRENCHSTOP™ 5
(H5/F5)
Low VCE(sat)
RC TRENCHSTOP™ 5
(WR5)
TRENCHSTOP™ 5
(H5/F5)
Corresponding best fit IGBTs
Corresponding best fit IGBTs
IGW30N65L5
IGP20N65H5/F5
IGP30N65H5/F5
IGP40N65H5/F5
IGW30N65H5/F5
IGW40N65H5/F5
IGW50N65H5/F5
IGZ50N65H5
IGZ75N65H5
IGZ100N65H5
IKW30N65EL5
IKW30N65NL5
IKW75N65EL5
IKZ75N65EL5
IKW30N65WR5
IKW40N65WR5
IKW50N65WR5
IKP08N65H5/F5
IKP15N65H5/F5
IKP20N65H5/F5
IKP30N65H5/F5
IKP40N65H5/F5
IKA08N65H5/F5
IKA15N65H5/F5
IKW30N65H5/F5
IKW40N65H5/F5
IKW50N65H5/F5
IKZ50N65E/NH5
IKZ75N65E/NH5
108
IGBT Product Table
TRENCHSTOP™ and RC-Drives Product Portfolio
600V Product Family
4
TO-251
TO-263
D2PAK
TO-220
TO-262
TO-220
FullPAK
IGD06N60T
TO-247PLUS
IGP06N60T
10
IGB10N60T
IGP10N60T
15
IGB15N60T
IGP15N60T
30
IGB30N60T
50
IGB50N60T
IGW30N60T
IGP50N60T
IGW50N60T
75
IGBT and Diode
TO-247
IGU04N60T
6
Single IGBT
TO-252
DPAK
IGW75N60T
3
IKD03N60RF/RFA
4
IKD04N60RF/RFA
IKD04N60R/RA
6
IKD06N60RF/RFA
IKD06N60R/RA
IKB06N60T
IKP06N60T
IKA06N60T
10
IKD10N60RF/RFA
IKD10N60R/RA
IKB10N60T
IKP10N60T
IKA10N60T
15
IKD15N60RF/RFA
IKD15N60R/RA
IKB15N60T
IKP15N60T
IKA15N60T
IKB20N60T/TA
IKP20N60T/TA
20
IKP04N60T
IKW20N60T/TA
30
IKW30N60T/TA
50
IKW50N60T/TA
75
IKW75N60T/TA
100
IKQ100N60T/TA
120
IKQ120N60T/TA
Discrete IGBTs
Continuous
collector current
@ Tc=100°C
TRENCHSTOP™ Product Portfolio
1200V Product Family
Duo Pack
Single IGBT
Continuous
collector current
@ Tc=100°C
TO-251
TO-252
DPAK
TO-263
D2PAK
TO-220
TO-262
TO-220 FullPAK
TO-247
TRENCHSTOPTM
TRENCHSTOPTM 2
8
IGW08T120
15
IGW15T120
25
IGW25T120
40
IGW40T120
60
IGW60T120
8
IKW08T120
15
IKW15T120
IKW15N120T2
25
IKW25T120
IKW25N120T2
40
IKW40T120
IKW40N120T2
109
IGBT Product Table
Induction Cooking Series Product Portfolio
600V, 1100V, 1200V, 1350V & 1600V Product Families
Continuous
collector current
@ Tc=100°C
TO-251
TO-252
(DPAK)
TO-263
(D2PAK)
TO-220
TO-262
TO-247
600V/650V
1100V
15
1350V
1600V
IHW15N120R3
IHW20N65R5
20
25
IGBT & Diode
1200V
IHW20N120R3
IHW20N135R3
IHW20N120R5
IHW20N135R5
IHW25N120R2
IHW30N65R5
30
IHW30N110R3
IHW40N65R5
40
IHW30N120R3
IHW30N135R3
IHW40N120R3
IHW40N135R3
IHW30N160R2
IHW40N60R
IHW40N60RF
50
IHW50N65R5
60
75
HighSpeed 2 Product Portfolio
Duo Pack
IGBT
Continuous
collector current
@ Tc=100°C
TO-251
TO-252
(DPAK)
IGD01N120H2
1
3
3
TO-263
(D2PAK)
TO-220
TO-262
TO-220
FullPAK
TO-247
IGB01N120H2
IGP01N120H2
IGB03N120H2
IGP03N120H2
IGA03N120H2
IGW03N120H2
IKB03N120H2
IKP03N120H2
IKA03N120H2
IKW03N120H2
600V Product Family
IGBT
Continuous
collector current
@ Tc=100°C
TO-251
TO-252
(DPAK)
TO-263
(D2PAK)
TO-220
20
IGB20N60H3
IGP20N60H3
30
IGB30N60H3
IGP30N60H3
TO-247
IGW20N60H3
IGA30N60H3
IGW30N60H3
IGW40N60H3
50
IGW50N60H3
60
IGW60N60H3
75
IGW75N60H3
20
Duo Pack
TO-220
FullPAK
40
100
110
TO-262
IGW100N60H3
IKB20N60H3
IKP20N60H3
IKW20N60H3
30
IKW30N60H3
40
IKW40N60H3
50
IKW50N60H3
60
IKW60N60H3
75
IKW75N60H3
IGBT Product Table
TO-251
Duo Pack
IGBT
Continuous
collector current
@ Tc=100°C
TO-252
(DPAK)
TO-263
(D2PAK)
TO-220
TO-262
TO-220
FullPAK
TO-247
15
IGW15N120H3
25
IGW25N120H3
40
IGW40N120H3
15
IKW15N120H3
25
IKW25N120H3
40
IKW40N120H3
TRENCHSTOP™ 5 Product Portfolio
650V Product Family
TO-251
TO-252
(DPAK)
TO-263
(D2PAK)
TO-220
20
IGP20N65F5/H5
30
IGP30N65F5/H5
TO-262
TO-220
FullPAK
IGP40N65F5/H5
IGW50N65F5/5
IGW50N65H5A
IGW50N65F5A
50
IGZ50N65H5
75
IGZ75N65H5
100
IGZ100N65H5
8
IKP08N65F5/H5
IKA08N65F5/H5
15
IKP15N65F5/H5
IKA15N65F5/H5
20
IKP20N65H5/F5
IKP30N65H5/F5
IKW30N65H5
IKW30N65WR5
IKP40N65F5/H5
40
IKW40N65F5/H5
IKW40N65WR5
IKW40N65H5A
IKW40N65F5A
50
IKW50N65F5/H5
IKW50N65WR5
IKW50N65H5A
IKW50N65F5A
30
Duo Pack
TO-247 4pin
IGW40N65F5/5
IGW40N65H5A
IGW40N65F5A
IGBT
40
TO-247
Discrete IGBTs
Continuous
collector current
@ Tc=100°C
IKZ50N65EH5
IKZ50N65NH5
IKZ75N65NH5
IKZ75N65EH5
65
TRENCHSTOP™ 5 Low VCE(sat) Product Portfolio
650V Product Family
Continuous
collector current
@ Tc=100°C
Duo Pack
IGBT
TO-251
TO-252
(DPAK)
TO-263
(D2PAK)
TO-220
TO-262
TO-220
FullPAK
TO-247
30
lGW30N65L5
30
IKW30N65EL5
IKW30N65NL5
75
IKW75N65EL5
TO-247 4pin
IKZ75N75EL5
111
IGBT Nomenclature
Naming System
IGBT (Products Launched After 03/2013)
I
K
W
75
N
65
E
L5
A
Company
I = Infineon
Automotive Indicator
F5 = Fast IGBT (~20kHz)
H5 = HighSpeed 5
L5 = Low VCE(sat) Generation 5
R5 = RC Generation 5
Device
G = Single IGBT
H = Reverse Conducting
K = Duo Pack
Package Type
A = TO-220-3 FullPAK
B = TO-263-3 (D2PAK)
D = TO-252-3 (DPAK)
P = TO-220-3
U = TO-251-3 (IPAK)
W = TO-247-3
Q = TO-247PLUS-3
Z = TO-247-4
Diode (for Duo Pack only)
B = Emitter Controlled half rated
C = Emitter Controlled full rated
blank = Rapid 1 half rated
E = Rapid 1 full rated
M = Rapid 2 half rated
N = Rapid 2 full rated
R = SiC Generation 5 half rated
S = SiC Generation 5 full rated
W = Full rated hard switching
Nominal Current
[A] @ 100°C
Nominal Voltage
Divided by 10 (650V/10 = 65)
Technology
N = N-Channel
P = P-Channel
IGBT (Products Launched Before 03/2013)
I
Company
I = Infineon
Device
K = IGBT + Diode (normal drives)
H = optimized for soft
(e.g. induction heating)
G = Single IGBT
D = Diode
Package Type
A = TO-220 FullPAK
B = TO-263 (D2PAK)
D = TO-252 (DPAK)
P = TO-220
U = TO-251 (IPAK)
W = TO-247
112
K
W
40
N
120
H
3
A
Automotive
Generation
– = Fast IGBT (~20kHz)
Hχ = HighSpeed Generation (600 - 1200V)
Tχ = TRENCHSTOP™ Generation (600V IGBT3) (1200V IGBT4)
Rχ = Reverse Conducting
RF = Reverse Conducting Fast
F = HighSpeed FAST 5
Rχ = Rapid Diode Generation
Nominal Voltage
Divided by 10 (1200V/10 = 120)
Technology
N = N-Channel
T = TRENCHSTOPTM
E = Emitter Controlled Diodes (for diode only)
Nominal Current
(@ 100°C) [A]
Discrete IGBTs
IGBT Support
Expert Support for Discrete IGBT
www.infineon.com/igbt-datasheets
www.infineon.com/igbt-material
www.infineon.com/discrete-automotive-igbt
www.infineon.com/latest-discrete-packages
Latest Videos
www.infineon.com/igbtdiscretes
New Releases
www.infineon.com/igbt-newreleases
Datasheets
113
Silicon Power Diodes
The Rapid Diode family complements Infineon’s existing high power 600V/650V diode portfolio by filling the gap
between SiC diodes and previously released emitter-controlled diodes. They represent a perfect cost/performance
balance and target high efficiency applications switching between 18kHz and 100kHz. Rapid 1 and Rapid 2 diodes are
optimized to have excellent compatibility with CoolMOS™ and high speed IGBT (Insulated Gate Bipolar Transistor)
such as the TRENCHSTOP™ 5 and HighSpeed 3.
Emitter Controlled Diodes
0Hz
Rapid 1
Rapid 2
18kHz
40kHz
SiC
100kHz>100kHz
The Rapid 1 Diode Family
Rapid 1 is forward voltage drop (VF) optimized to address low switching frequency applications:
Optimized for applications switching between 18kHz and 40kHz, for example Air Conditioner and Welder PFC stages
1.35V temperature-stable forward voltage (VF)
Lowest peak reverse recovery current (Irrm)
Reverse recovery time (trr) < 100ns
High softness factor
The Rapid 2 Diode Family
Rapid 2 is Qrr/trr optimized hyperfast diode to address high speed switching applications:
Optimized for applications switching between 40kHz and 100kHz typically found in PFCs in high efficiency
Switch Mode Power Supplies (SMPS) and Welding Machines.
Lowest reverse recovery charge (Qrr): VF ratio for Best-in-Class performance
Lowest peak reverse recovery current (Irrm)
trr < 50ns
High softness factor
VF - Qrr Trade-off, Rapid 1 diF/dt = 1000A/us, Rapid 2 diF/dt = 300A/us
PFC Efficiency @ 60kHz – Vin = 230V
900
IDW30E65D1
800
Comp A
700
Comp B
Efficiency [%]
Qrr [nC]
600
500
400
97.4
98.0
97.2
97.8
97.0
97.6
96.8
97.4
96.6
96.4
96.2
200
96.0
IDP08E65D2
Comp C
1.3
IDP08E65D2
Comp D
1.5
1.6
1.7
VF [V]
1.8
1.9
2.0
2.1
2.2
2.3
97.0
96.8
96.6
Comp. F
96.4
95.6
1.4
97.2
Comp. S
95.8
0
114
98.2
300
100
PFC E
97.6
Efficiency [%]
1000
96.2
0
100
200
300
400
Output Power [W]
500
600
700
800
0
200
400
Si Power Diodes Product Table
Rapid 1 Diodes
650V Product Family
8A
IDP08E65D1
15A
IDP15E65D1
TO-220
(Common Cathode)
TO-247
TO-247
(Common Cathode)
IDV20E65D1
20A
30A
TO-220 FullPAK
TO-220
Continuous
Current Ic
Tc=100°C
IDP30E65D1
IDW30E65D1
IDW30C65D1
IDW40E65D1
40A
60A
IDW60C65D1
75A
IDW75D65D1
80A
IDW80C65D1
Rapid 2 Diodes
650V Product Family
Continuous
Current Ic
Tc=100°C
TO-220
TO-220 FullPAK
8A
IDP08E65D2
IDV08E65D2
15A
IDP15E65D2
IDV15E65D2
20A
IDP20E65D2
30A
IDP30E65D2
40A
IDP40E65D2
80A
IDV30E65D2
TO-220
(Common Cathode)
TO-247
TO-247
(Common Cathode)
IDW15E65D2
IDP20C65D2
IDW20C65D2
IDP30C65D2
IDW30C65D2
IDW40E65D2
IDW80C65D2
115
Si Power Diodes Product Table
Emitter Controlled Diodes
600V and 1200V Product Families
TO-252
(DPAK)
600V
Continuous
Current Ic
Tc=100°C
6
IDD06E60
9
IDD09E60
15
IDD15E60
TO-263
(D2PAK)
30
TO-220
Real 2pin
IDB15E60
IDP15E60
IDB30E60
IDP30E60
IDW30E60
IDP45E60
45
50
IDW50E60
75
IDW75E60
IDW100E60
100
1200V
TO-247
IDP12E120
12
IDP18E120
18
30
IDB30E120
IDP30E120
Naming System
I
Company
I = Infineon
Device
D = Diode
Package Type
P = TO-220
V = TO-220 FP
W = TO-247
Nominal Current
(@ 100°C) [A]
116
D
W
75
E
65
D1
D1 = Rapid 1
D2 = Rapid 2
Nominal Voltage
Divided by 10 (650V/10 = 65)
Technology
E = Std. Diode configuration
C = Common Cathode
D = Dual Anode
A = Tandem
Silicon Diodes Support
Expert Support for Si Power Diodes
www.infineon.com/rapiddiodes-material
www.infineon.com/rapiddiodes-datasheets
www.infineon.com/ultrasoftdiodes-material
www.infineon.com/ultrasoftdiodes-datasheets
Latest Videos
www.infineon.com/rapiddiodes
Datasheets
117
Power Management ICs
Power Management ICs
Technology Leadership in Power Supply
AC/DC Power Management ICs
PWM Controller
PFC Controller
CCM PFC
Stand-alone PWM
Fixed Frequency CoolSET™
(Continuous Conduction Mode)
Fixed Frequency
ICE2PCS02G (65kHz)
ICE2PCS03G (100kHz)
ICE2PCS04G (133kHz)
Adjustable Frequency
ICE2PCS01G (50kHz - 250kHz)
ICE2PCS05G (20kHz - 250kHz)
ICE3PCS01G (OVP+Brown-out)
ICE3PCS02G (OVP)
ICE3PCS03G (Brown-out)
DCM PFC
Fixed Frequency (FF)
ICE3AS03LJG (100kHz)
ICE3BS03LJG (65kHz)
ICE3GS03LJG (130kHz)
Quasi Resonant (QR)
ICE2QS02G
ICE2QS03G
Half-bridge (HB) LLC Resonant
ICE1HS01G-1
ICE2HS01G
Combi (PFC+PWM)
(Discontinuous Conduction Mode)
TDA4862(G)
TDA4863(G)
TDA4863-2(G)
118
TTR Combi
ICE1CS02
ICE1CS02G
650V F3/F3R CoolSET™
ICE3A/B(R)xx65Jx
ICE3RBRxx65JZ
800V F3R CoolSET™
ICE3A/BRxx80Jx
ICE3ARxx80CJZ
ICE3ARxx80VJZ
Quasi-Resonant CoolSET™
650V CoolSET™
ICE2QRxx65
800V CoolSET™
ICE2QRxx80(G)
DCM PFC ICs
Power Factor Correction and Combo Controller
Discontinuous Conduction Mode PFC ICs zero crossing
detector
TDA4862 / TDA4862G
TDA4863-2/G
Power Factor Controller (PFC) IC for high-power factor
and active harmonic filter
IC for sinusoidal line-current consumption
Power factor approaching 1
Controls boost converter as an active
harmonics filter
Internal start-up with low current consumption
Zero current detector for discontinuous
operation mode
High current totem pole gate driver
Trimmed +/-1.4% internal reference
Undervoltage lock out with hysteresis
Very low start-up current consumption
Pin compatible with world standard
Output overvoltage protection
Current sense input with internal low pass filter
Totem pole output with active shutdown
during UVLO
Junction temperature range -40°C to +150°C
Available in DIP-8 and SO-8 packages
Power Factor Controller IC for high-power
factor and low THD additional features to TDA4862
Reduced tolerance of signal levels
Improved light load behavior
Open loop protection
Current sense input with leading edge blanking LEB
Undervoltage protection
Power ICs
TDA486x
119
CCM PFCs
Continuous Conduction Mode PFC ICs
ICE2PCSxx
2nd Generation Continuous Conduction Mode (CCM)
Power Factor Correction IC Features
Fulfills Class D requirements of IEC 61000-3-2
Lowest count of external components
Adjustable and fixed switching frequencies
Frequency range from 20kHz to 250kHz
Versions with brown-out protection available
Wide input range supported
Enhanced dynamic response during load jumps
Cycle by cycle peak current limiting
Integrated protections OVP, OCP
DIP-8 and DSO8
Leadfree, RoHS compliant
2nd Generation Continuous Conduction Mode (CCM) Power Factor Correction IC Product Portfolio
Product
120
Frequency – fSW
Current Drives
Package
ICE2PCS01G
50kHz-250kHz
2.0A
DSO-8
ICE2PCS02G
65kHz
2.0A
2.0A
ICE2PCS03G
100kHz
ICE2PCS04G
133kHz
2.0A
ICE2PCS05G
20kHz-250kHz
2.0A
CCM PFCs
3rd Generation Continuous Conduction Mode (CCM)
Power Factor Correction IC Features
Integrated digital voltage loop compensation
Boost follower function
Bulk voltage monitoring signals, brown-out
Multi protections such as Double OVP
Fast output dynamic response during load jump
External synchronization
Extra low peak current limitation threshold
SO-8 and SO-14
Leadfree, RoHS compliant
Product
Frequency – fSW
Current Drives
Features
Package
ICE3PCS01G
Adjustable
0.75A
OVP+Brown-out
SO-14
ICE3PCS02G
0.75A
OVP
SO-8
ICE3PCS03G
0.75A
Brown-out
SO-8
CCM PFC by feature
ICE2PCS01(G)
ICE2PCS05(G)
Digital control voltage loop
Variable frequency
ICE2PCS02(G)
ICE2PCS03(G)
ICE2PCS04(G)
–
–
ü
Synchronous frequency
–
ICE3PCS03G
ICE3PCS02G
ICE3PCS01G
ü
ü
ü
ü
ü
ü
ü
ü
ü
Open loop protection
ü
ü
ü
ü
ü
Low peak current limit
-1V
-1V
-0,4V
-0,4V
-0,2V
Brown out protection
–
ü
ü
–
ü
Over voltage protection
ü
ü
ü
ü
ü
ü
ü
Second over voltage protection
–
PFC enable function
–
ü
Boost follower mode
–
ü
5V regulator
–
ü
Power ICs
Fixed Frequency PWM IC and CoolSET™ Product Portfolio
121
Combi CCM PFC IC/PWM IC
Combination of Continuous Conduction Mode PFC
with Two-Transistor Forward PWM IC
ICE1CS0x/G
Pre-short protection
Trimmed reference voltage +/-2.5% (+/-2% at 25°C)
BiCMOS technology for wider VCC range
Power Factor Correction Block
Fixed switching frequency (sync to half PWM freq.)
AC brown-out protection
Average current control
Max. duty cycle of 95%
Enhanced dynamic response for fast load
response
Unique soft-start to limit start up current
Over-voltage protection
Product
Frequency – fSW
Current Drives
ICE1CS02
PFC=65kHz
PWM=130kHz
2.0A
DIP-16
2.0A
DSO-16
ICE1CS02G
122
Pulse-Width-Modulation Block
Fixed switching frequency
Option for external control synchronization
Built in soft start for higher reliability
Max duty cycle 47% or 60%
Overall tolerance of current limiting <+/-5%
Internal leading edge blanking
Slope compensation
Fast, soft switching totem pole gate drive (2A)
SO-16 and DIP-16
Pb-free lead plating and RoHS compilant
All protection features available
Package
LLC Controller ICs
Resonant LLC Half-Bridge Controller IC
LLC Resonant (No SR)
ICE1HS01G-1
Novel and simple design (12 components + HB driver)
Minimum operating frequency is adjustable externally

Burst mode operation for output voltage regulation during no load and/or bus over-voltage
Multiple protections in case fault
Input voltage sense for brown-out protection

Open loop/over load fault detection by FB pin with auto-restart and adjustable blanking/restart time
Power ICs
Frequency shift for over-current protection
Lead Free, RoHS compliant package
DSO-8 package
Product
Frequency – fSW
Dead Time(ns)
Current Drives
Package
ICE1HS01G-1
30kHZ~600kHz
380
1.5A
DSO-8
123
LLC Controller ICs
Resonant LLC Half-Bridge Controller IC
with Integrated Sychronised Rectifier Control
LLC Resonant + SR
ICE2HSO1G
Novel LLC/SR operation mode and controlled by primary side controller
Multiple protections for SR operation
Tight tolerance control
Accurate setting of switching frequency and dead time
Simple system design
Optimized system efficiency
Multiple converter protections: OTP, OLP, OCP, latch-off enable
External disable for either SR switching or HB switching
Lead free, RoHS compliant package
DSO-20 package
124
Product
Frequency(SW)
Dead Time(ns)
Current Drives
Package
ICE2HS01G
30kHz~1MHz
100~1000
0.3A
DSO-20
LLC Controller ICs
Package
Switching frequency range
ICE1HS01G-1
ICE2HS01G
DSO-8
DSO-20
up to 600kHz
up to 1MHz
LLC softstart
ü
ü
LLC burst mode
ü
ü
Adjustable minium frequency
ü
ü
Over load/open loop protection
ü
ü
Mains undervoltage protection with hysteresis
Over current protection
ü
ü
2-level
3-level
Drive signal for Synchronous Rectification
–
ü
Adjustable deadtime
–
ü
External latch-off and OTP
Target application
–
ü
LCD-TV, Audio, etc.
Server, PC, LCD-TV, etc.
Power ICs
LLC Half-Bridge Controller IC
125
Climate Saver Systems
Climate Saver 80 PLUS® and 80 PLUS® Bronze
12V
5V
3V3
PFC / PWM
5V
80 PLUS® and 80 PLUS® Bronze
PFC Block
ICE1CS02/G
CoolSETTM
PWM Block
ICE3AR10080JZ/CJZ
Standby Block
CoolSET™
ICE3AR4780JZ
ICE3AR2280JZ/CJZ
ICE3AR0680JZ
ICE3AR4780CJZ
Climate Saver 80 PLUS® Silver
DC/DC
5V
DC/DC
3V3
12V
PFC
80 PLUS® Silver
PFC Block
PWM Block
ICE2PCS01G
ICE2PCS02G
ICE1HS01G-1
ICE3AR4780JZ
ICE3AR2280JZ/CJZ
ICE3AR0680JZ
ICE2QR4765
ICE2QR1765
ICE2QR0665
ICE3AR4780CJZ
126
5V
CoolSETTM
ICE3AR10080JZ/CJZ
Standby Block
CoolSET™
PWM
Climate Saver Systems
Climate Saver 80 PLUS® Gold
Climate Saver 80 PLUS® Platinum
Certification for Infineon's Silverbox reference design
5V
DC/DC
3V3
DC/DC
12V
PFC
PWM
5V
CoolSETTM
ICE3PCS01G
PFC Block
ICE3PCS02G
ICE3PCS03G
PWM Block
80 PLUS® Platinum
Certification for Infineon's Silverbox reference design
ICE3PCS01G
PFC Block
ICE2HS01G
ICE3AR10080JZ/CJZ
ICE3PCS03G
PWM Block
ICE3AR4780JZ
Standby Block
CoolSET™
ICE3AR2280JZ/CJZ
ICE3AR0680JZ
ICE3BR2280JZ
ICE3PCS02G
ICE2HS01G
ICE2QR4780Z
Standby Block
CoolSET™
Power ICs
80 PLUS® Gold
ICE2QR2280Z - 1
ICE2QR0680Z
ICE2QR2280G-1
ICE3BR0680JZ
ICE3AR4780CJZ
www.infineon.com/silverbox
127
Isolated AC/DC
Isolated AC/DC
Quasi-Resonant PWM IC and CoolSET™ Features
zero crossing
detector
CoolSETTM
Integrated CoolMOS™ with
Auto restart mode for VCC under-
Peak power limitation with input
startup cell
Quasi-resonant operation with
digital frequency reduction
High average efficiency over wide
load range
Stable operation without jittering/
audible noise problem
Active burst mode operation
for very low standby losses (to
achieve standby power <50mW)
voltage/over-voltage protection
Auto restart mode for open-loop
and output overload protection
Auto restart mode for over-temperature protection
Latch-off mode for output overvoltage, short-winding
BiCMOS technology (controller)
for wide VCC operation and low IC
power consumption
voltage compensation
Minimum switching frequency
limitation (no audible noise on
power units on/off)
DIP and DSO package
(for controllers and CoolSET™ )
Quasi-resonant PWM IC and 650V CoolSET™
Pout1)
(85 … 265VAC) /
RDS(on)
Package
14~15W
23~26W
34W
38~42W
4.7Ω
1.7Ω
1.0Ω
0.6Ω
PWM Only
650V Depletion CoolMOS™
DIP-7
ICE2QR4765Z
ICE2QR1765Z
DIP-8
ICE2QR4765
ICE2QR4765-T
ICE2QR1765
ICE2QR0665
ICE2QR4765G
ICE2QR1765G
ICE2QR0665G
DSO-8
ICE2QR1065Z
ICE2QR0665Z
ICE2QS02G
ICE2QS03G
DSO-12
Quasi-resonant CoolSET™ 800V
Pout1)
(85 … 265VAC) /
RDS(on)
18W
4.7Ω
Package
DIP-7
DSO-12
1)
128
24W
47W
2.2Ω
0.6Ω
ICE2QR4780Z
ICE2QR2280Z
ICE2QR2280Z-1
ICE2QR2280G
ICE2QR2280G-1
Output power assume 78~83% efficiency. Ta=50°C, Tj=125°C and no copper area for 650V device and 232mm2 copper area for 800V device.
ICE2QR0680Z
Isolated AC/DC
Fixed Frequency PWM IC and CoolSET™ Features
CoolSETTM
Active burst mode to achieve
DCM, CCM
Fixed softstart time
the lowest standby power
requirements < 50mW
Optional latched off mode (L) to
increase robustness and safety of
the system
Adjustable blanking window
for high load jumps to
increase reliability
Startup cell switched off after start-up
65kHz/100kHz/130kHz internally
fixed switching frequency
Over-temperature, over-voltage,
short-winding, overload and openloop, VCC under-voltage, brown-out
protections, fast AC reset, input
over-voltage protection
Overall tolerance of current

limiting < +/-5%
Internal leading edge blanking time
Max. duty cycle 72%
DIP, DSO and FullPAK packages

Fixed Frequency PWM IC and CoolSET™ 650V
Pout1)
(85 … 265VAC) /
RDS(on)
13~14W
18W
24~25W
34W
39~40W
61 ~138W
6.5Ω
4.7Ω
3.0Ω
1.7Ω
1.0Ω
0.6Ω
2.5Ω/1.4Ω/1.0Ω/0.6Ω
PWM Only
DIP-7
ICE3RBR4765JZ
DIP-8
DSO-8
ICE3B0365J
ICE3B0365J-T
ICE3BR4765J
ICE3B0365JG
ICE3BR4765JG
ICE3RBR1765JZ
ICE3A1065ELJ
ICE3BR1765J
ICE3RBR0665JZ
ICE3A2065ELJ
ICE3BR1065J
ICE3BR0665J
Power ICs
Package
11~12W
ICE3AS03LJG
ICE3BS03LJG
ICE3GS03LJG
DSO-12
ICE3BR2565JF (61W) (2.5Ω)
ICE3BR1465JF (77W) (1.4Ω)
ICE3BR1065JF (93W) (1.0Ω)
ICE3BR0665JF (138W) (0.6Ω)
TO-220
FullPAK
Fixed Frequency PWM IC and CoolSET™ 800V
Pout1)
(85 … 265VAC) /
RDS(on)
11W
16W
22W
30W
37W
43W
10.0Ω
4.7Ω
2.2Ω
1.5Ω
1.0Ω
0.6Ω
Package
DIP-7
1)
ICE3AR10080JZ
ICE3AR10080JZ-T
ICE3AR10080CJZ
ICE3AR4780JZ
ICE3AR4780VJZ
ICE3AR4780CJZ
ICE3AR2280JZ
ICE3AR2280JZ-T
ICE3AR2280CJZ
ICE3AR2280VJZ
ICE3BR2280JZ
ICE3BR2280JZ-T
ICE3AR1580VJZ
ICE3AR1080VJZ
ICE3AR0680JZ
ICE3AR0680VJZ
ICE3BR0680JZ
Output power assume 76~83% efficiency. Ta=50°C, Tj=125°C and no copper area
129
Isolated AC/DC
Fixed Frequency PWM IC
FF PWM IC
ICE3AS03LJG
ICE3BS03LJG
Package
ICE3GS03LJG
DSO-8
Operating temperature
Switching frequency
-25°C ~ 130°C
100kHz
65kHz
Max VCC voltage
130kHz
27V
VCC on/off threshold
Soft start time
18V / 10.5V
10ms
20ms
Gate drive capability
10ms
-0.17A / 0.39A
Jitter feature for low EMI
√
Modulated gate drive
√
Active burst mode
√
Over load/Open loop
Auto restart
VCC under voltage/ Short opto-coupler
Auto restart
Short winding/Short diode
latch-off
VCC over voltage
latch-off
Over temperature
latch-off
External protection enable pin
latch-off
Quasi-Resonant PWM IC
Feature
Package
Startup cell
VCC on/off
Power saving during standby
Digital Frequency reduction for high
average efficiency
ICE2QS03G
DSO-8
DSO-8
-25°C ~ 130°C
-40°C ~ 130°C
–
ü
12V / 11V
18V / 10.5V
–
Active Burst Mode with fsb = 52kHz
ü
ü
OLP blanking time
Adjustable
Fixed
Auto restart timer
Setting with external components
Through VCC charging/discharging
Adjustable through ZC resistor
Yes with VZCOVP=4.5V
Yes, with VZCOVP=3.7V
Maximum input power limitation
Adjustable output overvoltage
protection with Latch mode
130
ICE2QS02G
brown-out feature
ü
–
Target application
Aux-Power Supply to VCC
Eg. LCD TV multi/main, Audio main, PDP TV multi/address
Self-Power Supply to VCC
e.g. Notebook/Tablet Adapters, LCD TV Mulit, CRT TV, Audio,
DVD, Smart Meter, Industrial applications
Isolated AC/DC
Quasi-Resonant CoolSET™
650V CoolSET™
Package
DIP-8/DIP-7/DSO-16/12
CoolMOS™ rating
RD(on)
Output power 2)
ICE2QRxx65-T
ICE2QRxx80Z/G
DIP-8
DIP-7 / DSO-16/12
650V1)
4.7Ω
0.65/2.2/4.7Ω
14 ~ 42W
15W
18 ~ 47W
-25°C ~ 130°C
-40°C ~ 130°C
18V / 10.5V
24W
18V / 9.85V
Active Burst Mode with fsb = 52kHz
Digital Frequency Reduction
for high average efficiency
√
OLP blanking time
Fixed
Auto restart timer
Through VCC charge/disscharge
Maximum input power limitation
Adjustable output overvoltage
protection with latch mode
Yes, with VZCOVP = 3.7V
ICE2QR4765
ICE2QR4765Z
ICE2QR4765G
ICE2QR1765
ICE2QR1765Z
ICE2QR1765G
ICE2QR1065Z
ICE2QR0665
ICE2QR0665Z
ICE2QR0665G
2.2Ω
-25°C ~ 130°C
Power Saving during standby
Product available
DIP-7 / DSO-16/12
800V
0.65/1.0/1.7/ 4.7Ω
VCC on/off
ICE2QRxx80Z/G-1
ICE2QR4765-T
ICE2QR4780Z
ICE2QR2280Z
ICE2QR2280G
ICE2QR0680Z
Power ICs
ICE2QRxx65/Z/G
800V CoolSET™
ICE2QR2280Z-1
ICE2QR2280G-1
DFR= Digital Frequency Reduction, PPR= Peak Power Limitation/Control
1)
Output power assume 78~83% efficiency. Ta =50°C, Tj =125°C and no copper area for 650V device and 232mm2 copper area for 800V device.
131
Isolated AC/DC
Fixed Frequency CoolSET™
650V CoolSET™
F3(Jitter)
ICE3Bxx65J(G)
Package
F3( Latch & Jitter)
ICE3Axx65ELJ
F3R
ICE3BRxx65J(G)
DIP-8, DSO-16/12
DIP-8
11W ~ 12W
18W ~ 34W
Output power range 1)
MOSFET (rugged avalanche capability)
67kHz
100kHz
Max Vcc voltage
18V / 10.3V
ü
11W
-40°C
65kHz
65kHz
ü
ü
–
by CSOFTS
20ms
by CSOFTS
1 level
Auto restart
Auto restart
Vcc over voltage
Auto restart
Latch
Auto restart
Over temperature
Auto restart
Latch
Auto restart
–
Latch
Auto restart
brown-out
–
Input OVP
–
Fast AC reset
–
Slope compensation for CCM mode
Product available
(by CSOFTS)
–
Vcc under voltage/ short opto-coupler
External protection enable pin
67kHz
18V / 10.3V
ü
Over load/Open loop
132
DIP-8
13W ~ 40W
18V / 10.5V
(by CSOFTS)
Active burst mode selection
1)
DIP-7
13W ~ 40W
27V
Vcc on/off threshold
Soft start time
DIP-8, DSO-16/12
-25°C
Switching frequency
Modulated gate drive
F3(Jitter)
ICE3B0365J-T
650V
Min. operating temperature
Jitter feature for low EMI
F3R
ICE3RBRxx65JZ
–
–
ICE3B0365J
ICE3B0365JG
Output power assume 76~83% efficiency. Ta=50°C, Tj=125°C and no copper area
ICE3A1065ELJ
ICE3A2065ELJ
ICE3BR4765J
ICE3BR1765J
ICE3BR1065J
ICE3BR0665J
ICE3BR4765JG
ICE3RBR4765JZ
ICE3RBR1765JZ
ICE3RBR0665JZ
ICE3B0365J-T
Isolated AC/DC
800V CoolSET™
F3R 800V
ICE3ARxx80JZ
F3R 800V
ICE3BRxx80JZ
F3R CCM 800V
ICE3ARxx80CJZ
F3R 800V
ICE3ARxx80JZ-T
F3R 800V
ICE3BRxx80JZ-T
F3R 800V
ICE3ARxx80VJZ
11W ~ 22W
11W
11W ~ 43W
100kHz
65kHz
DIP-7
11W ~ 43W
11W ~ 22W
800V
-25°C
100kHz
65kHz
-40°C
100kHz
100kHz
27V
17V / 10.5V
ü
Power ICs
YES (with 50Ω gate turn-on resistor)
10ms
4 levels
3 levels
4 levels
Auto restart
Auto restart
Auto restart
Auto restart with hysteresis
Auto restart
ICE3AR10080JZ
ICE3AR4780JZ
CE3AR2280JZ
ICE3AR0680JZ
Latch
–
–
–
ü
–
ü
–
ü
ICE3BR2280JZ
ICE3BR0680JZ
Auto restart
ü
ICE3AR10080CJZ
ICE3AR4780CJZ
ICE3AR2280CJZ
–
–
ICE3AR10080JZ-T
ICE3AR2280JZ-T
ICE3BR2280JZ-T
ICE3AR4780VJZ
ICE3AR2280VJZ
ICE3AR0680VJZ
ICE3AR1080VJZ
ICE3AR1580VJZ
133
Non-Isolated DC/DC
Non-Isolated DC/DC
MOSFET Gate Driver IC
The new OptiMOS™ Driver products PX3517 and PX3519 are high speed Drivers, designed to drive a wide range of dual
high side and low side n-channel power MOSFETs in applications such as Computing and Telecom Point-of-Load (PoL).
Combining the new devices with the Primarion/Infineon Digital Multi-Phase Controllers IC family and Infineon
N-Channel MOSFETs, the new devices form a complete core-voltage regulator solution for advanced micro and graphic
processors as well as Point-of-Load applications.
To tailor the efficiency of the system based on the customer conditions and needs, the OptiMOS™ Driver devices
provide the capability of driving the high-side gate and low-side gate with a variable gate driving voltage ranging from
4.5V up to 8V.
General Features
High frequency operation up to 1.2MHz
Includes bootstrap diode
Wide VCC input voltage range from 4.5V to 8V
Adaptive shoot through protection
Capability to drive MOSFET at 50A continuous current
Compatible with standard + 3.3V PWM controller ICs
per phase
Tri-state PWM input functionality
Wide input voltage range: up to 16V
RoHS compliant
Low power dissipation
Application Diagrams
PX3517 offers a thermal warning
report function.
RT
PX3519 features a gate disable pin (EN)
for low power consumption.
VCC
BOOT
PVCC
EN
BOOT
3.3V
THW#
HS Driver
Level
Shifter
UGATE
100K
10K
UVLO
3.3V
4K25
Input
Logic
3 State
HS
Logic
to GND
4K 25
-
PWM
PVCC
LS
Logic
4K0
Logic Unit
LS Driver
Input
Logic
3 State
PWM
LGATE
10K
PHASE
Shoot Through
Protection Unit
HS
Logic
-
LS
Logic
4K
Logic Unit
GND
134
10K
PHASE
Shoot Through
Protection Unit
UGATE
3.3V
Thermal
Sense
Cell
VCC
HS Driver
Level
Shifter
VCC
LGATE
LS Driver
10K
GND
Gate driver
PX3517
PX3519
Package
3mm x 3mm TDSON-10
3mm x 3mm VDSON-8
RoHS compliant
✓
✓
Max. junction temperature
-25°C to 125°C
-25°C to 125°C
Supply voltage and driving voltage, VCC
+4.5V to 8V
+4.5V to 8V
Boot to GND
30
30
PWM inputs
tri-state compatibility
tri-state compatibility
Quiescent current IQ
660µA
780µA
Features
thermal warning
driver enable pin
Non-Isolated DC/DC
6 x 6 IQFN High-Performance DrMOS (Driver+MOS)
TDA21220
Features
Intel compliant DrMOS, Power MOSFET and Driver
Extremely robust switch node -10V ... 25V in noisy applications
Includes active PMOS
Adaptive gate drive for shoot through protection
5V high and low side driving voltage
Compatible to standard PWM controller ICs
with 3.3V and 5V logic
Tri-State functionality
Small package: IQFN-40 (6 x 6 x 0.8mm3)
RoHS compliant (Pb Free)

in one package
For synchronous buck – step-down voltage applications
Wide input voltage range from 5V to 16V
High efficiency
Extremely fast switching technology for improved performance at high switching frequencies
Remote driver disable function
SMOD-switching modulation of low side MOS
DrMOS Application Diagram
VCIN
UVLO
VDRV
BOOT
Level
Shifter
VIN
GH
HS Driver
DISB#
VSWH
HS
Logic
VCIN
Shoot Through
Protection Unit
PWM
LS
Logic
SMOD#
Power ICs
Input
Logic
3-State
LS Driver
IC Driver
CGND
GL
PGND
TDA21220
Input voltage range
5V to 16V
SMOD function
supported
Thermal warning/shutdown
-
Max. average load current
50A
MOSFET breakdown voltage
25V
PWM levels
compatible +3.3V / +5V (tolerant)
Swhoot through protection
included
135
Non-Isolated DC/DC
DrBlade™
The Revolutionary Next Packaging Generation
Infineon has launched the revolutionary Blade chip embedding technology. DrBlade™ contains the latest generation
low voltage DC/DC Driver technology and OptiMOS™ MOSFET devices.
Features
Compatible to Intel® VR12 Driver and MOSFETs module (DrMOS) functionality
High current capability up to 60A
Capable of operating up to 1.2MHz switching frequency
Fast switching technology for improved performance (>95% peak efficiency)
Small package size and low profile: 6.6x4.5x0.6m³
Optimized footprint for DC/DC converter layout and improved cooling to the PCB
Low thermal resistance to the top side
RoHS compliant and halogen free
Compatible to standard +3.3V PWM controller
Applications
High performance Desktop, Notebook and Server DC/DC converters
Single Phase and Multiphase DC/DC Point-of-Load (PoL) converters
CPU/GPU voltage regulation in Desktop Graphics Cards, DDR Memory, Graphic Memory
High Power Density Voltage Regulator Modules (VRM)
Telecom VR
TDA21320/ TDA21321
Features
Temperature reporting and over temperature protection
High side short protection
Over-current protection
Shoot-through protection
Under voltage lockout
Boot switch included
Low side-off function
TDA21320
136
TDA21321
Input voltage
16V
16V
SMOD function
included
included
Temperature reporting and
overtemperature protection
included
included
30A
Max average load current
60A
Maximum MOSFET BVDSS voltage
25V
25V
PWM levels
+3.3V
+3.3V
Shoot through protection
included
included
Non-Isolated DC/DC
Digital Controllers for Point-of-Load Power Management
Infineon’s Digital Multi-phase and Multi-rail controllers provide power for today’s medium and high current PoL applications used in Telecom/Datacom and Server and Storage environments. Infineon’s Digital Controller family enables
OEMs and ODMs to improve efficiency and total cost of ownership while increasing power density and optimizing the
total system footprint of the voltage regulator. The PX7247, PX7241, PX7143, PX7242 and PX7141 are the first products
out of our 4th generation digital controller family and support up to 2 rails with 1-6 phases on individual rails. The I2C/
PMBus interface connects the digital controllers to the application system and provides real time telemetry information,
monitoring and control capabilities. The digital controllers are fully configurable through our PowerCode™ graphical
user interface that allows for easy to use and simplified design optimization.
Multiple Phase Configurations are Supported for Best Power Optimization:
Feature
Controller Family
Configurable output rails
Part No.
PMBus
Phase
configuration
Main
Sub configurations
Vout_max
Switching frequency
Operating temperature range
VQFN Package
Dual /Single Rail
Dual Rail
Single Rail
Dual Rail
PX7247HDN
PX7241HDN
PX7143HDM
PX7242HDM
Single Rail
PX7141HDM
6+1
3+3
3ph
1+1
1ph
6+0, 5+1+, 5+0, 4+1
3+2, 3+1, 2+2+, 2+1
2ph
-
-
5V
5V
5V
5V
5V
Up to 2 MHz
Up to 2 MHz
Up to 2 MHz
Up to 2 MHz
Up to 2 MHz
-0…85°C
-0…85°C
-0…85°C
-0…85°C
-0…85°C
48-lead
(6 x 6)
0.4mm pitch
48-lead
(6 x 6)
0.4mm pitch
40-lead
(5 x 5)
0.4mm pitch
40-lead
(5 x 5)
0.4mm pitch
40-lead
(5 x 5)
0.4mm pitch
Advantages of a Digital Controller
Power ICs
Protection features include a set of sophisticated over-voltage, under-voltage, over-temperature, and over-current
protections. PX7247, PX7241, PX7143, PX7242 and PX7141 also detect and protect against an open circuit on the remote
sensing inputs. These attributes provide a complete and advanced protection feature set for microprocessor, DSP, FPGA
or ASIC power systems. Accurate current sense telemetry is achieved through internal calibration that measures and
corrects current sense offset error sources upon startup. Programmable temperature compensation provides accurate
current sense information even when using DCR current sense.
137
Non-Isolated DC/DC
Typical Point-of-Load Application
PWM
OFF
+12V
RB
+5V
R1
+3.3V
VDD
PX7241HIN
VR_EN
RESET
TDA21320
DrBlade™ 2
BOOT
PHASE
IMON
IMONREF CGND
PWM
TMON
SW
VIN
VDRV
TDA21320
DrBlade™ 2
BOOT
PHASE
CBOOT
L
CBOOT
LOAD1
PGND
IMON
IMONREF CGND
PWM2
PWM
TMON
SW
ISEN2N
OFF
ISEN2P
VIN
COUT
PWM1
BVR_READY
ISEN1P
RB
TDA21320
DrBlade™ 2
BOOT
PHASE
PWM3
VDRV
SADDR_M
ISEN3N
VCIN
IMON
IMONREF CGND
SADDR_L
ISEN3P
PWM
TMON
SW
SCL
L
PGND
VCIN
VCIN
ISEN1N
SDA
RB
SW
TSEN
VR_READY
I2C Interface
VDRV
OFF
VINSEN
R2
VIN
TMON
DR_EN
L
CBOOT
PGND
Rext
VSENP
Cext
VSENN
BTSEN
FAULT1
IMON/FAULT2
OFF
BPWM1
RB
BISEN1N
BISEN1P
VIN
VDRV
TDA21320
DrBlade™ 2
BOOT
PHASE
CBOOT
PGND
VCIN
IMON
IMONREF CGND
BISEN3N
PWM
TMON
SW
BISEN3P
OFF
BDR_EN
VIN
BPWM2
L
BISEN2N
BISEN2P
VD15_BP1
VD15_BP2
VD15
BPWM3
Rext
BVSENP
RB
Cext
GND
VDRV
BOOT
PHASE
CBOOT
PGND
VCIN
IMON
IMONREF CGND
PWM
TMON
SW
RB
VIN
VDRV
VCIN
TDA21320
DrBlade™ 2
IMON
BOOT
PHASE
PGND
IMONREF CGND
LOAD2
COUT
BVSENN
OFF
138
TDA21320
DrBlade™ 2
L
L
CBOOT
Power ICs Support
Expert Support for Power ICs
www.infineon.com/acdc
www.infineon.com/dcdc
www.infineon.com/coolset
www.infineon.com/drblade
www.infineon.com/drmos
Power Management ICs Evaluation Boards
www.infineon.com/powercontrol.evalboards
www.infineon.com/coolset.evalboards
www.infineon.com/coolsetqr.evalboards
Datasheets
139
Lighting ICs
Lighting ICs
Ballast Control IC for Fluorescent Lamp
Ballast Control ICs from Infineon integrate all functions required to operate FL lamps such as preheat-, ignition- and
run-mode and protection features. Digital mixed-signal power control is employed enabling speedy, cost effective
and stable ballast designs with a minimum number of external components. Reliable and robust high voltage isolation is achieved using Infineon’s proprietary Coreless Transformer Technology (CLT).
Integrated high performance PFC stage
Intelligent digital/mixed signal power control
Integrated high voltage half bridge driver
All parameters set using only resistors
Highly accurate timing and frequency
control over a wide temperature range
PFC Controller
Ballast Controller
HV-Driver
140
Ballast Control ICs
ICB2FL01G
Infineon’s 2nd Generation Ballast Controller ICB2FL01G is designed to control a fluorescent lamp ballast including
Power Factor Correction (PFC)
Lamp inverter control and
High voltage level-shift half bridge driver
with Coreless Transformer Technology
min.
Operating voltage range
Turn-on threshold
Supply current during UVLO and fault mode
typ.
max.
SO-19
10V
–
–
14V
17.5V
–
110µA
170µA
Operating frequency of inverter during RUN mode
20kHz
–
120kHz
Operating frequency of inverter during preheating mode
FRFRUN
–
150kHz
Preheating time
0ms
–
2500ms
Adjustable self-adapting dead time max between LS and HS gate drive
2.25µs
2.50µs
2.75µs
Adjustable self-adapting dead time min between LS and HS gate drive
1.00µs
1.25µs
1.50µs
Operating voltage range of floating HS gate drive
-900V
–
+900V
LS current limitation threshold: Ignition/start up/soft start/pre run
1.5V
1.6V
1.7V
LS current protection threshold during RUN mode and preheating
0.75V
0.80V
0.85V
End-of-life detection threshold
-40µA
–
+40µA
Detection of –n-ZVS operation CapMode 1 & 2
–
–
–
PFC preconverter control with critical and discontinuous CM
–
–
–
18µs
22.7µs
26µs
Hysteresis of zero current detector
–
1.0V
–
PFC current limitation threshold
–
1.0V
–
2.47V
2.5V
2.53V
Maximum controlled on-time
Reference voltage for control of bus voltage
Overvoltage detection threshold
2.68V
2.73V
2.78V
Undervoltage detection threshold
1.835V
1.88V
1.915V
Open loop detection
0.237V
0.31V
0.387V
Junction operating temperature range
-25°C
–
+125°C
–
–
–
Pb-free lead plating RoHS compliant
Power ICs
Short Form Data
Package
141
Ballast Control ICs
Ballast Control ICs
ICB2FL01G
Features
Benefits
Able to handle lamp chokes with higher
Optimized lamp choke size and reduced BOM costs
saturation behavior
Special in-circuit test mode for faster test time
Excellent dynamic PFC performance enables very
low THD across wide load ranges
Separate adjustable levels of lamp overload and rectifier effect detection
Adjustment of the preheat time
No high voltage capacitor required for detection of
lamp removal (capacitive mode operation)
Automatically restarts by surge and inverter
overcurrent events
Skipped preheating when line interruption < 500ms
Self adapting dead time adjustment of the
half bridge driver
One single restart at fault mode
Dramatically reduced time for key tests such as end of
life detection, preheat/ignition timeout and pre-run
operation modes
Suitable for dimming and multi-power ballasts
Enables ballast compatibility with a wider range of
lamp types
Flexible support of both current and voltage mode
preheating
Reduced BOM costs
Intelligent discrimination between surge & half bridge
overcurrent events
Meets standards for emergency lighting (according to
DIN VDE 0108)
Eases design of multi-power ballasts and reduces EMI
Enhanced reliability of ballasts
ICB2FL02G
The ICB2FL02G is functionality identical to the ICB2FL01G with adjustments to certain timings and parameters to further
optimize performance in dimming ballasts.
Function
ICB2FL02G
ICB2FL01G
Cap load 1 protection
Deactivated
Activated
Suitable for dimming
Optimized
ü
Max. adjustable run frequency
140kHz
120kHz
Adjustable dead time
1.05µs
1.05µs to 2.5µs
Dead time detector level
-50mV
-100mV
Capacitive mode 2 detector level 3
-50mV
-100mV
ICB2FL03G
Infineon’s latest Ballast Controller ICB2FL03G in SO-16 offers very similar performance and feature set compared to the
well established SO-19 product ICB2FL01G.
Package
142
ICB2FL03G
ICB1FL01G
SO-16 small body
SO-19 wide body
Driver capability
650V
900V
Lamp connection
Single and series
Single, series and parallel
LED Driver ICs
LED Driver ICs for General Lighting
LED based Lighting sources are the best suited candidates to replace inefficient Lighting solutions such as incandescent or
halogen lamps that are still widely used today. Current LED driver design and system cost are still a challenge to gain major
consumer acceptance. Infineon offers benchmark solutions and represents an outstanding choice to overcome this hurdle.
ICL8001G / ICL8002G
These devices are designed for off-line LED Lighting applications with high efficiency requirements such as replacement
lamps (40/60/100W), LED tubes, luminaires and downlights. Infineon provides a single stage flyback solution with PFC
functionality. Innovative primary control techniques combined with accurate PWM generation for phase cut dimming
enable solutions with significant reduced component count on a single sided driver PCB for smallest form factor.
Benefits
ICL8001G simplifies LED driver implementation
ICL8002G is optimized for best dimming performance
ICL8002G
LED-
VLED
35V/300mA
VIN Detection
LED+
Passive
Damper
Passive
Bleeder
EE13 (SP_NEW)
ICL8001G
Power ICs
Features
Primary side flyback or buck control with integrated PFC and phase angle dimming
Optimized for trailing- and leading-edge dimmers
Integrated HV startup cell for short time to light
Best-in-Class BOM for dimmable LED bulbs
High and stable efficiency over wide dimming range
–– Good line regulation capabilities based on digital foldback correction
–– Low external part count for simplified designs and short-time to market
–– Cycle-by-cycle peak current limitation
Built-in digital soft-start
Auto restart mode for short circuit protection
Adjustable latch-off mode for output overvoltage protection
+
L
VIN
90~132V AC
VR
ZCV
VCC
ICL 8001G
Continuous Mode
DIM Control
PFC
N.C.
PWM-Control
Protection
Gate Driver
GND
HV
Start-Up
Cell
BSS225
-
U1
5
N
6
7
8
GD
DRV
HV
CS
N.C.
VCC
GND
ICL8002G
VR
ZCV
4
3
IPD60R2K0C6
2
1
CS
Active Bleeder
143
LED Driver ICs
Linear Current Regulators
BCR401W / BCR402W / BCR401U / BCR402U / BCR405U / BCR205W
The BCR40x family is the smallest size and lowest cost series of LED drivers. These products are perfectly suited for
driving low power LEDs in general lighting applications. Thanks to AEC-Q101 qualification, it may also be used in Automotive applications such as brake lights or interior.
The advantage versus resistor biasing is:
Long lifetime of LEDs due to constant current in each LED string
Homogenous LED light output independent of LED forward voltage binning, temperature increase & supply voltage variations
See Application Note AN182 for details on replacing resistors

The advantage versus discrete semiconductors is:
Reduced part count and assembly effort
Pretested output current
Defined negative temperature co-efficient protection
Features and benefits
Output current from 10mA to 65mA (adjustable by external resistor)
Supply voltage up to 24V (BCR401W, BCR402W) and up to 40V (BCR401U, BCR402U, BCR405U)
Reduction of output current at high temperature, contributing to long lifetime LED systems
Ease-of-use
Very small form factor packages with up to 750mW max. power handling capability
Low-Power LED Driver ICs (5–65mA)
Product Type
Group
Topology
Vs (min)
[V]
Vs (max)
[V]
Iout (typ)
[mA]
Iout (max)
[mA]
BCR205W
LED controller
BCR401U
LED drivers for low-power LEDs
BCR401W
Dimming
Package
Ptot (max)
[mW]
Linear
1.8
Linear
1.4 + VfLED
18
0.5
40
10.0
ext. Switch
no
SOT343
100
65
Digital
SC74
Linear
1.2 + VfLED
18
750
10.0
60
Digital
SOT343
BCR402U
Linear
1.4 + VfLED
500
40
20.0
65
Digital
SC74
BCR402W
Linear
750
1.4 + VfLED
18
20.0
60
Digital
SOT343
500
BCR405U
Linear
1.4 + VfLED
40
50.0
65
Digital
SC74
750
Supply voltage 12 VDC
LED driver BCR 401/402
Control circuit
Rint
Sense
Control
ON/OFF
144
LEDs
RSENSE
(optional)
LED Driver ICs
BCR420U / BCR321U / BCR420U / BCR421U / BCR450
The BCR32x and BCR42x LED drivers are dedicated linear regulators for 0.5W LEDs with a maximum output current of
250mA. They are optimized in terms of cost, size and feature set for medium power LEDs in general Lighting applications. Thanks to AEC-Q101 qualification, it may also be used in Automotive applications such as brake lights or interior.
Features and Benefits
Output current from 10mA up to 300mA for BCR32x (200mA for BCR42xU), adjustable by external resistor
Supply voltage up to 40V for BCR42x (24V for BCR32x)
Direct Microcontroller interface for PWM dimming with BCR321U/BCR421U
Reduction of output current at high temperature, contributing to long lifetime LED systems
Ease-of-use
Very small form factor packages with up to 1.000mW max. power handling capability
Medium- & High-Power LED Driver ICs (65–500mA)
Product Type
Group
BCR320U
LED drivers for mid-power LEDs
Topology
Linear
Vs (min)
[V]
Vs (max)
[V]
Iout (typ)
[mA]
Iout (max)
[mA]
Dimming
Package
Ptot (max)
[mW]
1.4 + VfLED
24 + VfLED
250
300
No
SC74
1
1
BCR321U
Linear
1.4 + VfLED
24 + VfLED
250
300
Digital
SC74
BCR420U
Linear
1.4 + VfLED
40 + VfLED
150
200
No
SC74
1
BCR421U
Linear
1.4 + VfLED
40 + VfLED
150
200
Digital
SC74
1
BCR450
LED controller
Linear
3.0
27
70
ext. switch
Digital
SC74
500
VS
Power ICs
+
–
RSENSE
(optional)
Von:
BCR 320
BCR 420
Von:
µC
BCR 321
BCR 421
145
LED Driver ICs
DC/DC Switch Mode LED Driver ICs
ILD1151 / ILD4001 / ILD4035 / ILD4120 / ILD4180 / ILD6070 / ILD6150
The ILD series are switch mode LED driver ICs for high power LEDs. They combine protection features that contribute
to the lifetime of LEDs with the flexibility in output current range from 150mA up to multiple amperes. The new ILD
series include LED driver ICs with integrated power stage as well as with external MOSFET achieving up to 98% driver
efficiency across a wide range of general Lighting applications. ILD4120, ILD4180, ILD6070 and ILD6150 are buck LED
regulators. ILD4001 is a buck LED controller and ILD1151 is a multi-topology LED controller.
Features and Benefits
Wide input voltage range
Scalability in output current from 150mA up to
multiple amperes
Alternative dimming concepts: digital or analog
Vs (min)
146
Vs (max)
Iout (typ)
Iout (max)
Package
Over voltage and over current protection

Smart thermal protection for ILD2035, ILD4035, ILD4120,
ILD6070 and ILD6150 contributing to longer LED lifetime
ILD1151 supports boost, buck-boost and SEPIC topologies
Dimming
Topology
fsw
Features
ILD1151
4.5V
45V
90.0mA
3.000mA
SSOP-14
Analog/digital Boost,
buckboost
SEPIC
Adjustable
100-500kHz
Multi topology controller, constant current
or constant voltage mode, over-voltage,
over-current, short on GND protection
ILD4001
4.5V
42V
10.0mA
3.000mA
DSO-8-27
Analog/digital Hysteretic buck
< 500kHz
Zhermal protection
ILD4035
4.5V
40V
350mA
400mA
SC74
< 500kHz
Smart thermal protection, over-voltage,
over-current protection
ILD4120
4.5V
40V
1.200mA
1.200mA
DSO-8-27
< 500kHz
Smart thermal protection, over-voltage,
over-current protection
ILD4180
4.75V
45V
1.800mA
1.800mA
DSO-8-27
Digital
ILD6070
4.5V
60V
700mA
700mA
DSO-8-27
ILD6150
4.5V
60V
1.500mA
1.500mA
DSO-8-27
Fixed frequency 370kHz
buck
<1000kHz
Over voltage, over-current protection, constant current or constant voltage mode
Integrated switch rated up to 700mA, PWM
or analog dimming, adjustable over temperature protection, over-current protection
Integrated switch rated up to 1.500mA, PWM
or analog dimming, adjustable over temperature protection, over-current protection
LED Driver ICs Support
Expert Support for LED Driver ICs
www.infineon.com/led.appnotes
www.infineon.com/led.documents
www.infineon.com/lowcostleddriver
www.infineon.com/ledoffline
LED Driver Online Design Tool
www.infineon.com/lightdesk
LED Driver Evaluation Boards
www.infineon.com/led.evalboards
Datasheets
147
Digital I/O ICs
ISOFACE™
Galvanic Isolated High Side Switches and Input ICs
Our ISOFACE™ product family provides robust and intelligent galvanic isolation for industrial control applications such
as Programmable Logic Controllers, Sensor Input Modules, Control Panels and General Control Equipment. The output
switches are compact in design, enabling robust and reliable operation at low system cost. Ideal for high speed
applications, input ICs are equally robust, reliable and compact – also offering superior EMI robustness and diagnostics.
Isolated Output Switches
Key Features
Integrated galvanic isolation (500V)
8 channels (0.6 or 1.2A, each)
Inductive load switching
Diagnostic feedback
(over-temperature, over-load)
Serial and parallel MCU interface
Key Benefits
Robust and reliable
Compact system solution
Lower system cost
System status feedback
Directly interfacing with all
MPUs and MCUs
Typical Block Diagram Isolated Output Switch
Vbb
VCC
VCC
Vbb
VCC
DIS
Control
Unit
WR
Parallel or
D0
Serial
Interface
Transmission
Transmission
CS
µC
i.e.
XMC1xxx
XMC4xxx
OUT0
Control
&
Protection
Unit
OUT1
Logic
DIAG
D7
DIAG
OUT7
GNDCC
GND
Switch
µC Interface
Safety Features
Diagnostics
Feedback
GNDbb
Product Overview
ISO1H801G
ISO1H811G
ISO1H812G
ISO1H815G
Vbb operational range: 11V to 35V
ü
ü
ü
ü
ü
0.6A
0.6A
0.6A
1.2A
1.2A
Load current increase by using outputs in parallel
ü
ü
ü
ü
ü
Inductive clamping energy per channel: 1Joule
ü
ü
ü
ü
ü
parallel
parallel
serial
parallel
serial
Nominal voltages
5V
3.3V / 5V
3.3V / 5V
3.3V / 5V
3.3V / 5V
Isolation voltage: VISO = 500V,
UL508 & EN 61131-2 certified
ü
ü
ü
ü
ü
Active current limitation
ü
ü
ü
ü
ü
Thermal shut-down
ü
ü
ü
ü
ü
Common output disable pin
ü
ü
ü
ü
ü
ü
ü
ü
ü
ü
Max. continuous load current per channel
Type
Over-temperature
Vbb under-voltage
Package DSO-36 (16 x 14mm)
Infineon Ordering Code
148
ISO1H81xG
ISO1H816G
ü
ü
ü
ü
ü
ü
ü
ü
SP000722122
SP000413798
SP000413800
SP000555576
SP000555578
Digital I/O ICs
Isolated Digital Input ICs
Key Features
Integrated galvanic isolation (500V)
8 channels (IEC Type 1/2/3)
Up to 500kHz sampling speed
Programmable input filters
Channel-specific diagnostics
(wire-break, undervoltage)

Key Benefits
Robust and reliable
Compact system solution
High-speed applications
Superior EMI robustness
System status feedback
Valuable maintenance support
Typical Block Diagram Digital Input Switch
SW1 SW2
VBB
330nF
Serialize
8 Sensors
12kΩ
I0H
I0L
2kΩ
IN7
12kΩ
GNDFI
I7H
I7L
GNDBB
ISO1I813T
ERR
Digital
Filter
Sync
CS
Logic
2kΩ
IN0
DC
ENA
Deserialize
VFI
VCC
TS
WB
Parallel
or Serial
Interface
Digital
Filter
µC
e.g.
XE166
GND
Product Overview
Input Characteristics
µC Interface
Safety Features
ISO1I811T
ISO1I813T
IEC Type: I, II, III
ü
ü
Input status LED
ü
ü
Max sampling frequency
125kHz
500kHz
Deglitching filter setting
Hard wired
Software, individual per channel
Synchronous data acquisition
–
ü
3.3V/5V
ü
ü
Serial & parallel
ü
ü
500V Isolation voltage
ü
ü
Wire break, channel-specific
–
ü
Vbb undervoltage
–
ü
ü
Support for external Vbb supply
–
Package TSSOP-48 (8 x 12.5mm)
ü
ü
Infineon ordering code
SP000876494
SP000876504
Power ICs
ISOFACE ™ Reference Design with Microcontroller XMC
The EMI-tested reference design is a complete and proven template for product design and shortens development time:
Layout proposal which meets IEC 61131-2 (Zone C) requirements
Optimized bill-of-materials
Example firmware
Ordering code: SP0012831904 (available as of April 2015)
www.infineon.com/isoface
149
EiceDRIVER™
EiceDRIVER™
High Voltage Gate Driver ICs
1ED020I12-B2
ED-
1ED020I12-BT
Enhanced
Enhanced
Single channel isolated gate driver
Basic isolation according to EN60747-5-2,
Same functions and features as 1ED020I12-B2
recognized under UL1577
Fully functional at transient +/- 1420V and
static voltages of +/-1200V
High voltage side status feedback
2A sink and source rail-to-rail output
Max. Tj = 150°C
Package SO-16 300mil
Protection functions:
–– Enhanced desaturation
detection
–– Active Miller clamp
–– Under-voltage lockout
–– Shut down
–– Watchdog timer
Evaluation board available EVAL-1ED020I12-B2
Basic isolation according to EN60747-5-2, recognized
under UL1577
Adjustable two level turn-off function
Desaturation detection with 500µA
Evaluation board available EVAL-1ED020I12-BT
1ED020I12-FT
1ED020I12-F2
Enhanced
Same functions and features as 1ED020I12-B2
Functional isolation of 1200V
Can be used with evaluation board EVAL-1ED020I12-B2
Typical Application 1ED020I12-F2
+5V
RDY
DESAT
/FLT
To control
logic
CVCC2
GATE
VCC
GND
ININ+
RDESAT
CDESAT
RST
+5V
+15V
CVCC2
GND2
VEE2
CLAMP
1ED020I12-F2
Enhanced
ED-
Enhanced
Dual channel isolated gate driver
Same functions and features as two times 1ED020I12-F2
Evaluation board available EVAL-2ED020I12-F2
ED-
VCC2
ED-
Same functions and features as 1ED020I12-BT
Functional isolation of 1200V
Can be used with evaluation board EVAL-1ED020I12-BT
2ED020I12-F2
150
ED-
DProt
DDESAT
RG
EiceDRIVER™
1EDI30J12CP
ED-
Enhanced
Infineon has developed the Direct Drive JFET Topology to enable normally-on SiC JFETs to be driven at
best possible efficiency and as safe as normally-off switches. This isolated EiceDRIVER™ dedicated for
normally-on SiC JFETs comes with special features and benefits:
Single channel driver IC with Coreless Transformer (CT)
technology
Galvanic isolation, +/- 1200V
UVLO 16-17V, optimized for Infineon’s SiC JFET
discretes and power modules
Bootstrap mode (UVLO 8-9V, logic, MOS driver
capability, indicator output)

Typical Application 1EDI30J12CP
supply failures
Minimum 3A rail-to-rail output
Extremely low propagation delay of typ. 80ns
Green package DSO-19-4 (300mil)
Drain cascode
VCC1
SiC JFET
+5V to SGND
Safe turn-off during start up and power
JFDrv
CVCC
SGND
Controller
MDrv
IN
VReg
EN
CLJFG
CVReg
LV MOSFET
VCC2
GND1
CVEE2
VEE2
-25V to VCC2
BSEN
Source cascode
Power ICs
1EDI30J12CP
CoolSiC™ 1200V JFET Portfolio and Recommended Driver / LV MOS for Direct Drive Topology
RDS(on)
Sales name
JFET Package
Driver
Driver Package
LV MOS
LV MOS Package
Voltage
1200
1200
70
IJW120R070T1
TO-247
1EDI30J12CP
DSO-19-4
BSC030P03NS3 G
SuperSO8
100
IJW120R100T1
TO-247
1EDI30J12CP
DSO-19-4
BSC030P03NS3 G
SuperSO8
70
IJC120R070T1
Bare die
1EDI30J12CP
DSO-19-4
IPC099P03N
Bare die
100
IJC120R100T1
Bare die
1EDI30J12CP
DSO-19-4
IPC099P03N
Bare die
151
EiceDRIVER™
2ED020I12-FI
ED-
2EDL Compact Family
Enhanced
1200V isolated high side half bridge gate driver
Galvanic isolation of high side driver
2A sink current, 1A source current
Fully functional at transient and static voltages
of +/-1200V
Integrated operational amplifier and comparator
Matched delay times of high side and low side
Max. Tj = 150°C
Protection function:
–– Hardware input interlocking
–– Undervoltage lockout
–– Shut down function
2ED020I06-FI
650V isolated high side half bridge gate driver
2A sink current, 1A source current
Fully functional at transient and static voltages
of +/-650V
Matched delay times of high side and low side
Max. Tj = 150°C
Protection function:
–– Under voltage lockout

VCC
DC-Bus
VDD
+5V
µC
2EDL05I06PF
PWM_H
HIN
PWM_L
LIN
GND
GND
VB
HO
VS
LO
To
Load
To Op-amp/
Comparator
DC-Bus
152
Compact
600V levelshift high side half bridge gate driver
Ultra fast integrated bootstrap diode
SO8 and SO14 package
Enable function (2EDL23x only)
Fault indication (2EDL23x only)
Versions with and without interlock
–– Asymmetric undervoltage lockout
–– Active shut down
–– Undervoltage lockout levels for
MOSFET and IGBT
–– Over-current protection (2EDL23x only)
–– Fixed HW dead time optional
Evaluation boards available:
–– EVAL-2EDL05I06PF
–– EVAL-2EDL23I06PJ
–– EVAL-2EDL23N06PJ
Galvanic isolation of high side driver
Typical Application 2EDL05I06PF
ED-
EiceDRIVER™
ED-
Compact
Fully functional at static voltages
of +/- 1200V
High CMTI rating dv/dt = 100V/ns
Up to 6A min. output peak current
Separated source/sink output or single
output with Active Miller clamp
Short propagation delay of 100ns or
240ns input filter time for
Noise Suppression
Compact SO-8 150mil package
Evaluation board available
EVAL-1EDI60I12AF
Typical Application 1EDI60N12AF
VCC1
C1
VCC2
VCC2
C2
Rg_on
1EDI60N12AF
SGND
OUT+
GND1
IN
IN +
OUT-
IN -
GND2
Rg_off
Typical Application 1EDI30I12MF
VCC1
VCC1
C1
SGND
IN
6EDL Compact Family
VCC1
VCC2
1EDI30I12MF
OUT
GND1
IN +
CLAMP
IN -
GND2
VCC2
C2
Rg
ED-
Compact
200V and 600V 3-phase gate driver
Ultra fast integrated bootstrap diode
Fully functional at neg. transient voltages
down to -50V (500ns)
Programmable restart after over
current protection
Typical Application 6EDL04I06PT
DC-Bus
VCC
HIN1,2,3
LIN1,2,3
FAULT
EN
VCC
HIN1,2,3
LIN1,2,3
FAULT
EN
Shut down of all outputs in case of UVLO,
OCP
Package SO-28 300mil (600V) and
package TSSOP-28 (200V)
–– Over-current protection (OCP)
–– Undervoltage lockout (UVLO)
–– Fixed hardware deadtime of
high side and low side
–– Enable function
–– Pin compatible variants
of first generation available
Evaluation boards available:
EVAL-6EDL04I06PT
EVAL-6EDL04N02PR
RRCIN
CRCIN
VSS
VB1,2,3
HO1,2,3
VS1,2,3
To Load
Power ICs
1EDI Compact Family
LO1,2,3
RCIN
COM
ITRIP
VSS 6EDL04I06PT
R Sh
153
EiceDRIVER™ Product Table
High Voltage Gate Driver ICs Product Type
Products
ED-
Compact
ED-
Enhanced
* Certified according to DIN EN 60747-5-2
154
Package
Topology
Voltage Class
Source/Sink
Current Io+/-
Turn-On Propagation
Delay (max)
1EDI05I12AF
PG-DSO-8
Single
1200V
0.5 / -0.5A
330ns
1EDI10I12MF
PG-DSO-8
Single
1200V
1.0 / -1.0A
330ns
1EDI20I12AF
PG-DSO-8
Single
1200V
2.0 / -2.0A
330ns
1EDI20N12AF
PG-DSO-8
Single
1200V
2.0 / -2.0A
115ns
1EDI20I12MF
PG-DSO-8
Single
1200V
2.0 / -2.0A
330ns
1EDI30I12MF
PG-DSO-8
Single
1200V
3.0 / -3.0A
330ns
1EDI40I12AF
PG-DSO-8
Single
1200V
4.0 / -4.0A
330ns
1EDI60I12AF
PG-DSO-8
Single
1200V
6.0 / -6.0A
330ns
1EDI60N12AF
PG-DSO-8
Single
1200V
6.0 / -6.0A
115ns
2EDL05I06BF
PG-DSO-8
Half Bridge
600V
0.25 / -0.5A
600.0ns
2EDL05I06PF
PG-DSO-8
Half Bridge
600V
0.25 / -0.5A
600.0ns
2EDL05I06PJ
PG-DSO-14
Half Bridge
600V
0.25 / -0.5A
600.0ns
2EDL05N06PF
PG-DSO-8
Half Bridge
600V
0.25 / -0.5A
450.0ns
2EDL05N06PJ
PG-DSO-14
Half Bridge
600V
0.25 / -0.5A
450.0ns
2EDL23I06PJ
PG-DSO-14
Half Bridge
600V
1.5 / -2.3A
600.0ns
2EDL23N06PJ
PG-DSO-14
Half Bridge
600V
1.5 / -2.3A
450.0ns
6ED003L02-F2
PG-TSSOP-28
3-Phase
200V
180 / -380mA
800.0ns
6ED003L06-F2
PG-DSO-28
3-Phase
600V
180 / -380mA
800.0ns
6EDL04I06NT
PG-DSO-28
3-Phase
600V
180 / -380mA
800.0ns
6EDL04I06PT
PG-DSO-28
3-Phase
600V
180 / -380mA
800.0ns
6EDL04N02PR
PG-TSSOP-28
3-Phase
200V
180 / -380mA
800.0ns
6EDL04N06PT
PG-DSO-28
3-Phase
600V
180 / -380mA
800.0ns
1ED020I12-B2
PG-DSO-16
Single
1200V
2.0 / -2.0A
195.0ns
1ED020I12-BT
PG-DSO-16
Single
1200V
2.0 / -2.0A
2,000.0ns
1ED020I12-F2
PG-DSO-16
Single
1200V
2.0 / -2.0A
195.0ns
1ED020I12-FT
PG-DSO-16
Single
1200V
2.0 / -2.0A
2,000.0ns
2ED020I06-FI
PG-DSO-18
Half Bridge
650V
1.0 / -2.0A
105.0ns
2ED020I12-F2
PG-DSO-36
Dual
1200V
2.0 / -2.0A
195.0ns
2ED020I12-FI
PG-DSO-18
Half Bridge
1200V
1.0 / -2.0A
105.0ns
Tj (max)
Safety Isolation
Type*
UVLO ON,max
Fault Reporting
Shutdown / Enable
Input Logic Type
Interlock
Two Level Turn-Off
150.0 °C
–
12.7V
–
–
pos/neg
–
–
150.0 °C
–
12.7V
–
–
pos/neg
–
–
150.0 °C
–
12.7V
–
–
pos/neg
–
–
150.0 °C
–
10.0V
–
–
pos/neg
–
–
150.0 °C
–
12.7V
–
–
pos/neg
–
–
150.0 °C
–
12.7V
–
–
pos/neg
–
–
150.0 °C
–
12.7V
–
–
pos/neg
–
–
150.0 °C
–
12.7V
–
–
pos/neg
–
–
150.0 °C
–
10.0V
–
–
pos/neg
–
–
150.0 °C
–
12.4V
–
EN
pos
–
–
150.0 °C
–
12.4V
–
EN
pos
ü
–
150.0 °C
–
12.4V
–
EN
pos
ü
–
150.0 °C
–
9.9V
–
EN
pos
ü
–
150.0 °C
-
9.9V
-
-
pos
ü
no
150.0 °C
–
12.4V
OCP
EN
pos
ü
–
150.0 °C
–
9.9V
OCP
EN
pos
ü
–
125.0 °C
–
12.5V
ITRIP
EN
neg
ü
–
125.0 °C
–
12.5V
ITRIP
EN
neg
ü
–
125.0 °C
–
12.5V
ITRIP
EN
neg
ü
–
125.0 °C
–
12.5V
ITRIP
EN
pos
ü
–
125.0 °C
–
9.8V
ITRIP
EN
pos
ü
–
125.0 °C
–
9.8V
ITRIP
EN
pos
ü
–
150.0 °C
Basic
12.6V
DESAT
/RST
pos/neg
–
–
150.0 °C
Basic
12.6V
DESAT
/RST
pos/neg
–
ü
150.0 °C
–
12.6V
DESAT
/RST
pos/neg
–
–
150.0 °C
–
12.6V
DESAT
/RST
pos/neg
–
ü
150.0 °C
–
13.5V
–
/SD
pos
ü
–
150.0 °C
–
12.6V
DESAT
/RST
pos/neg
–
–
150.0 °C
–
13.5V
OCP
/SD
pos
ü
–
Power ICs
EiceDRIVER™ Product Table
155
EiceDRIVER™ Nomenclature
Naming System
EiceDRIVER™ (Driver Boards and Existing Gate Driver)
2ED
020
I
12
-F
2
Additional Function or Revision
I = Interlock
A = Automotive
Channel
1 = 1 Channel EiceDRIVER™
2 = 2 Channel / half bridge EiceDRIVER™
6 = 6 Channel (3Phase) EiceDRIVER™
Isolation Class
F = Functional
B = Basic
Output Current Rating
*100mA
Voltage Class
*100V
Isolation Technology
I = SPT5/B6CA CLT
L = SOI
N = No
EiceDRIVER™ (Gate Driver ICs Since 2012)
1ED
Channel
1 = 1 Channel EiceDRIVER™
2 = 2 Channel / half bridge EiceDRIVER™
6 = 6 Channel (3Phase) EiceDRIVER™
Isolation Technology
S = SafeCLT
B = BasicCLT
I = CLT
L = SOI-LS
Output Current Rating
*100mA
156
I
60
I
12
A
F
Package
Special Function
Voltage Class
*100V
Switch Type Optimization
J = JFET 16-20V
I = IGBT 11-13V
N = MOS 8-10V
EiceDRIVER™ Support
Expert Support for EiceDRIVER™
www.infineon.com/eicedriver
www.infineon.com/eicedriver-enhanced
www.infineon.com/eicedriver-compact
EiceDRIVER™ Boards
www.infineon.com/eicedriver-safe
Datasheets
157
CAN/LIN Transceivers
Proven Quality for Power Management Applications
Our CAN transceivers provide proven quality, reliable track records and high robustness in automation applications.
Features include excellent electromagnetic performance and low levels of electromagnetic interference (EMI). They are
also designed for ISO compliance. While our IFX1050G, IFX1050 GVIO and IFX1040SJ devices are optimized for high-speed
communication, the IFX1054G variant is suited for fault tolerance at lower data rates, where a separate flag supports
diagnostics.
Key Features
Key Benefits
Transmission rates up to 1Mbit/s
Low current consumption
ISO 11898 compliance
Excellent EMC performance and EMI robustness
Low-power modes
Pin-to-pin replacements for industry-standard parts
Support of failure conditions
Bus wake-up feature
Receive-only mode
Standby/sleep mode
Thermal protection
Block Diagram IFX1050 GVIO
IFX1050 GVIO
3
5
CANH
CANL
7
6
Output
Stage
Driver
1
Temperature
Protection
=
Mode
Control
Receiver
GND
158
2
8
4
VCC
V33
TxD
INH
RxD
Product Portfolio
Product Type
Transceiver Type
Transm. Rate (Max)
Quiescent Current
Bus Wake-Up
Capability
Wake-Up Inputs
Package
High-speed CAN,
ISO11898-2
1MBaud
<10µA @ 5V standby
No
No
PG-DSO-8
IFX1050GVIO
High-speed CAN,
ISO11898-2
1MBaud
<10µA @ 5V standby
No
No
PG-DSO-8
IFX1040SJ
High-speed CAN,
ISO11898-2,
ISO11898-5
1MBaud
<10µA @ 5V standby
Yes
Yes, STB
PG-DSO-8
IFX1054G
Fault tolerant CAN,
ISO11898-3
125kBaud
<65µA sleep mode
Yes
Bus wake-up and
wake-up pin
PG-DSO-14
IFX1021
LIN 1.3, 2.0,2.1
20kBaud
<10µA sleep mode
Yes
Bus wake-up and
wake-up pin
PG-DSO-8
Power ICs
IFX1050G
www.infineon.com/industrialtransceivers
159
Voltage Regulators
Voltage Regulators
Energy-Efficient Voltage Regulators and Trackers
Our linear voltage regulators and trackers help to reduce energy consumption, extending operating time and minimizing
operating costs across all kinds of systems. The wide supply voltage range, low quiescent current, rich protective feature
set and choice of packages make our devices the perfect fit across a broad application spectrum, even beyond typical
Automation designs. Our trackers are ideal as additional supplies for off-board loads to increase system reliability.
Key Features
Input voltage up to 60V
Output current up to 1.5A
Output voltage adjustable or fixed to specific values
Quiescent current down to 20µA
Overload, overtemperature, short-circuit and
reverse-polarity protection
Low current consumption
Extended temperature range -40°C ... +125°C
Key Benefits
Pin-to-pin compatibility with
industry-standard parts
Very low dropout voltage
Trackers for optimized heat distribution and
external protection
Trackers for maximum system cost reduction
Small robust packages
Infineon Microcontroller Families and Industrial Voltage Regulators
Microcontroller
Family
Input Voltage [V]
Input Current (max.) [mA]
Voltage Regulator
XMC1000 Family
1.8 … 5.5
<100
IFX54211/IFX2931/IFX4949/IFX25001/IFX544xx
XMC4000 Family
3.3
<500/300
IFX1763/IFX544xx/IFX1117
XC8xx
3.3 … 5.0
200
IFX20001/IFX24401/IFX2931/IFX21401/IFX4949/
IFX544xx
XE166/XC2000
1.5 and 3.3 or 5.0
100
IFX25401/IFX24401/IFX2931/IFX4949
TriCore™
1.5 … 3.3
>400
IFX27001/IFX8117/IFX91041/IFX80471/IFX25001/
IFX1117
Industrial Linear Voltage Regulator (Selection Tree)
20V
>20 … 60V
Maximum Input Voltage
Output Current
Output Current
≤500mA
IFX54441EJV
Adj, 3.3V, 5V
>500mA
1
<500mA
IFX20001
3.3V, 5V
300mA
800mA
30mA
150mA
EN, Rev. Pol, 2%
2% Accuracy
EN, Rev. Pol, 4%
EN
IFX1963
Adj
IFX20002
3.3V, 5V
IFX24401
5V
IFX1763
Adj, 3.3V, 5V
2
IFX54211
3.3V
500mA
1500mA
30mA
300mA
EN, Rev. Pol, 2.5%
EN, Rev. Pol, 1.5%
EN, Rev. Pol, 4%
EN, 2%
IFX21401
50mA
4
IFX21004
60V
Low Quiescent Current
IFX4949
IFX25001
2.5V, 3.3V, 5V
2
Low Noise Behavior
100mA
3
Small Package
1
4
Tracker! High Accuracy
5
Ultra Low Quiescent Current
6
Dual Output
7
Very Low Dropout
RST, 1%
IFX2931
3.3V, 5V
100mA
www.infineon.com/powersupply
3
IFX78M05
500mA
35V, 4%
5
35V, 4%
6
400mA
400mA
EN, Rev. Pol, 2%
IFX27001
Adj, 1.5V, 1.8V,
2.6V, 3.3V, 5V
1000mA
6
45V, Rev. Pol, 4%
IFX25401
Adj, 5V
IFX7805
5V
1000mA
30/150mA
0.5%
Output Current
160
≥500mA
3
IFX1117
Adj, 3.3V
7
40V, 3%
High-Side Switches
PROFET™ High-Side Switches
Protected High-Side Switches
Our PROFET™ high-side switches sit between the supply and load in order to control the application. These high-side
switches deliver a broad range of smart features, including various protective and diagnostic functions. Since PROFET™
devices can manage all kinds of resistive, capacitive and inductive loads, they can be used across a huge variety of
industrial applications.
Key Features
RoHS compliance
Very low stand-by current
ESD protection, optimized EMC
PWM capability
Key Benefits
Complete, built-in protection
Flexible design for all kinds of resistive, capacitive and
inductive loads
Very low power DMOS leakage current in OFF
3.3V and 5V compatible logic inputs
Protection features: load dump, current limitation,
thermal shutdown, loss of ground/battery protection,
stable behavior at undervoltage, overvoltage,
reverse polarity
Diagnostic features: open-load in on- and off-state,
short-circuit to battery and ground, overtemperature sense
Diagnosis: digital or as proportional load current sense
Load Current
Sense
Internal
Power
Supply
IN
SP
SEN or CLA
GND
Vbb
Gate Control &
Charge Pump
Logic
Open Load
Detection
ESD
Protection
Clamp for
Inductive Load
Power ICs
Block Diagram
Multi Step
Load Current
Limitation
OUT
Temperature
Sensor
RGND
161
High-Side Switches
Product Portfolio
Product Type
Number of
Channels
ITS4060S-SJ-N
1
ITS4100S-SJ-N
RDS(on)
(typ)
EAS
[mΩ]
Nominal
Load
Current
[A]
IL(SC)
(typ)
[mJ]
Recommended
Operating
Voltage Range
[V]
Diagnosis
N/A, Digital,
Current Sense
Package
50
3.1
900 @1.5A
5.0 … 34.0
17.0
1
70
2.4
870 @ 1.0A
N/A
PG-DSO-8
5.0 … 34.0
10.0
N/A
PG-DSO-8
ITS4200S-ME-O
1
ITS4141D
1
150
1.1
150
1.1
700 @ 0.5A
11.0 … 45.0
3.0
N/A
PG-SOT223-4
12,000 @ 0.5A
11.0 … 45.0
3.0
N/A
ITS4200S-SJ-D
1
150
PG-TO-252-5
1.7
125 @ 1.0A
6.0 … 52.0
6.5
Digital
PG-DSO-8
ITS4200S-ME-P
1
ITS4200S-ME-N
1
150
2.2
160 @ 1.0A
11.0 … 45.0
3.0
N/A
PG-SOT223-4
160
1.2
500 @ 0.5A
5.0 … 35.0
1.5
N/A
ISP752T
PG-DSO-8
1
200
1.7
125 @ 1.0A
6.0 … 52.0
6.5
N/A
PG-DSO-8
ITS4300S-SJ-D
1
250
0.8
800 @ 0.3A
5.0 … 34.0
1.2
Digital
PG-DSO-8
ITS41K0S-ME-N
1
1000
0.55
1,000 @ 0.15A
5.0 … 34.0
0.9
N/A
PG-SOT223-4
ITS5215L
2
90
2 x 2.0
178 @ 3.5A
5.5 … 40.0
15.0
Digital
PG-DSO-12
ITS42K5D-LD-F
2
2500
2 x 0.25
Freewheeling
4.5 …45V
600mA
Digital
PG-TSON-10
ITS724G
4
90
4 x 2.0
120 @ 3.3A
5.5 … 40.0
15.0
Digital
PG-DSO-20
ITS716G
4
140
4 x 1.0
76 @ 2.3A
5.5 … 40.0
9.0
Digital
PG-DSO-20
ITS711L1
4
200
4 x 1.0A
150 @ 1.9A
5.0 … 35.0
7.5
Digital
PG-DSO-20
ITS42008-SB-D
8
200
8 x 0.6
10,000 @ 625mA
11.0 … 45.0
3.0
Digital
PG-DSO-36
[A]
Industrial PROFET™ Evaluation Board Plus Samples
The industrial PROFET™ universal evaluation kit enables you to test the performance of the industrial PROFET™ product
family. The evaluation kit includes the board plus three samples of each of the new single channel products.
Suitable for:
ITS4060S-SJ-N
ITS4100S-SJ-N
ITS4200S-SJ-D
ITS4300S-SJ-D
ITS4200S-ME-N
ITS4200S-ME-O
ITS4200S-ME-P
ITS41K0S-ME-N
www.infineon.com/profet
162
DC/DC Converters
DC/DC Converters
Robust Range of Converters for the Widest Application Spectrum
Our high-efficiency switching regulators and controllers help to reduce energy consumption. In addition to extending
the operating time of battery-powered systems, they also significantly improve the thermal budget of the application.
Overall, this translates into minimal operating costs. For your design flexibility, they are available as adjustable voltage
variants as well as with dedicated fixed output voltage values.
Key Features
Input voltage up to 60V
Output currents going from 500mA up to 10A
Switching frequencies ranging from 100kHz to 2.2MHz
Shutdown quiescent current down to below 2µA
Key Benefits
High-efficiency regulation
Only a few external components needed for stable
regulation
Perfectly suited for regulation in pre-/post-regulation
Power Supply architectures
Current limitation and overtemperature protection
Enable feature
DC/DC Converters
VQ
(multiple)
Output Current Output Current
Type
[A]
Product Features
Package
IFX81481ELV
Adjustable
Buck Controller 10.0
10A synchronous DC/DC adjustable Step Down Controller;
f = 100 – 700kHz, N
PGSSOP-14
IFX90121EL
V50
5.0V
Buck Converter 0.5
Vin up to 45V, 2.2MHz Step-Down Regulator with low quiescent
Current
PGSSOP-14
IFX80471SK V
Adjustable
Buck Converter 2.3
Vin up to 60V; VQ adjustable from 1.25V up to 15V; external MOS
PG-DSO-14
IFX80471SK
V50
5.0V
Buck Converter 2.3
Vin up to 60V; external MOS
PG-DSO-14
IFX91041EJV
Adjustable
Buck Converter 1.8
VQ adjustable from 0.6V up to 16V; tolerance 2% up to 1000mA
PG-DSO-8
IFX91041EJ
V33
3.3V
Buck Converter 1.8
VQ fixed to 3.3V; tolerance 2% up to 1000mA
PG-DSO-8
IFX91041EJ
V50
5.0V
Buck Converter 1.8
VQ fixed to 5.0V; tolerance 2% up to 1000mA
PG-DSO-8
Block Diagram IFX91041
Industrial DC/DC Buck Regulators (Selection Tree)
VS
EN
7
45V
Output Current
5
BDS
Feed Forward
SYNC
Buck
Converter
1
6
Oscillator
4
Band-gap
Reference
IFX91041
BUO
IFX90121
5V
>45 … 60V
Output Current
≤1A
Charge Pump
Overtemperature
Shutdown
3
Maximum Input Voltage
8
Enable
COMP
Power ICs
Product Type
>1A
IF91401
Adj, 5V, 3.3V
≥2A
IFX81401
Adj
IFX80471
Adj, 5V
500mA
1.8A
10A
2.3A
2.2MHz
370kHz
Synchronous
controller
60V, 360kHz
FB
Soft-start Ramp
Generator
2
GND
www.infineon.com/industrial-dcdc-converters
163
Microcontroller
XMC – 32-bit Industrial Microcontrollers
One Microcontroller Platform. Countless Solutions.
Our XMC 32-bit Microcontroller family gives you a real competitive advantage. This wide and scalable portfolio offers
excellent real-time performance. Designed for quality and robustness, it offers configurable and fast peripherals which
operate largely autonomously. This means the XMC can be adapted to the specific needs of different target markets
such as building and factory automation, power and energy, home and professional computing and transportation.
Customers benefit from a wide portfolio and ecosystem powered by an ARM® Cortex™ -M0
(XMC1000 family) and Cortex™ -M4 (XMC4000 family).
DAVE™ - Digital Application Virtual Engineer
A complete set of development tools, ready-to-use software solutions and supporting services are available for XMC
Microcontrollers from Infineon and various third-party tool and software vendors. These tools and software products
support the entire development cycle to ensure a highly efficient development process.
Infineon’s free and revolutionary Eclipse-based IDE (Integrated Development Environment) enables a simple and
straightforward development flow for less risk and effort. This is achieved thanks to an intuitive graphical interface
and more than 350 application-optimized, configurable, tested and well documented apps and examples. Use of
DAVE™ generated source code with other tools from the wide ARM ecosystem is supported.
Key Features
Integration of powerful peripherals
Real-time and deterministic behavior
Operation at up to 125°C ambient temperature
164
Key Benefits
Industrial, cross-market Microcontroller suited to widest application spectrum
Excellent real-time performance
Long-term product availability until 2027
Easy design-in with DAVE™ IDE and DAVE™ Apps – advanced high-level GUI-based application-orientated
programming using predefined, configurable and tested
software components
Microcontroller
Infineon XMC 32-bit Microcontrollers Based on ARM® Cortex™ -M
Parameter
XMC1000
XMC1100
Core
XMC1200
DSP instruction set
–
–
System
Memory
✓
✓
up to 80MHz
up to 120MHz
1x
2x
DMA
–
Primitive Memory Protection (PAU)
Memory Protection Unit (8 Regions)
Watchdog
✓
✓
Real-time clock
✓
✓
8ch
✓
14 / 22 / 26 / 34 / 35
Supply voltage
1.8 to 5.5V
45 / 79 / 123
3.13 to 3.63V
-40 ... 85°C / 105°C / 125°C
16 – 200KB
8 – 200KB
64KB
256KB
✓
16KB
–
Ext memory interface
–
SysTick
✓
CCU4 (4 ch)
16KB
20KB
–
12-bit ADC
up to 12ch,
1xADC (1 MSPS)
12-bit DAC
1MB
40KB
80KB
160KB
1KB
4KB
–
✓
✓
1x
CCU8 (4 ch)
512KB
✓
16KB
Cache
Comparator
34 / 49
-40 ... 85°C / 105°C
8 – 64KB
Error Correction Code (ECC)
RAM
12ch
–
Number of I/Os
Timer
120MHz
MPU
Flash
Analog
XMC4500
–
up to 64MHz
Programmable hardware
interconnect matrix
XMC4400
ARM® Cortex™ -M4
64MHz
Floating Point Unit (FPU)
Hibernate domain
Communication
XMC4200
80MHz
–
Peripherals speed
–
2x
4x
1x
2x
up to 9ch, 2 x ADC (2 MSPS)
up to 26ch, 4x ADC (2 MSPS)
1x
up to 12ch, 2x ADC (1 MSPS)
–
2x
–
Up to 3 x
Programmable comparators built into Hi-Res PWM
IEEE 1588 ethernet MAC
–
–
1x RMII & MII
USB
–
FS DEV
FS OTG
SDIO/SD/MMC
–
–
✓
2ch, 1x FIFO (64 word)
4ch, 2 x FIFO (64 word)
6ch, 2 x FIFO
(64 word)
–
2 nodes, 64 message objects
3 nodes, 64
message
objects
USIC (UART, SPI, QSPI, I2C, I2S)
CAN 2.0 B
Application
XMC4100
32MHz
Math coprocessor
Hi-Res PWM (150ps)
–
∆∑ Demodulator
–
4ch
–
–
4ch
POSIF
–
–
1x
Capacitive touch control
–
Up to 16ch
–
Up to 7ch
Up to 8ch
LED matrix control
–
Up to 128 LEDs
–
Up to 28 LEDs
Up to 40 LEDs
Brightness control unit
DAVE™ apps
IDEs
XMC1300
ARM® Cortex™ -M0
Frequency
Other
XMC4000
–
Packages
2x
Up to 9ch
–
Code library with basic system, peripheral, and advanced application-oriented components for Motor Control, Power
Conversion, Lighting, Communication, and many more applications.
Debug and trace
Ecosystem
(IDEs, compiler, debugger)
1x
Microcontrollers
Infineon XMC MCUs
SWD, SPD
SWD, JTAG, Trace
Infineon DAVE™ (free) and partner ARM®/KEIL™ (free up to 128KB, XMC1000), Atollic, IAR Systems, Rowley Associates, TASKING
PG-VQFN-24/40
PG-TSSOP-16/38
PG-VQFN-24/40
PGTSSOP-16/28/38
PG-VQFN-24/40
PG-TSSOP-16/38
PG-VQFN-48
PG-LQFP-64
PG-VQFN-48
PG-LQFP-64
PGLQFP-64/100
PGLQFP-100/144
PG-LFBGA-144
www.infineon.com/xmc
www.infineon.com/dave
165
Microcontroller
AURIX™ – 32-bit Microcontrollers
32-bit Multi-Core TriCore™ – Safety Joins Performance
AURIX™ is Infineon’s family of Microcontrollers serving exactly the needs of Industrial applications in terms of performance and safety. Its innovative multi-core architecture, based on up to three independent 32-bit TriCore™ CPUs
@300MHz, has been designed to meet the highest safety standards while increasing the performance at the same time.
The key strengths of the scalable AURIX™ family is to combine multiple worlds in one family, supporting safety and security as well as high-performance computing and the latest connectivity as well as innovative Power Supply concepts.
Using the AURIX™ platform, developers will be able to implement applications like Motor Control and Drives, PLC, or
any other Automation application with the scalable MCU platform. Developments using AURIX™ will require less effort
to achieve the SIL/IEC61508 standard based on its innovative safety concept and multiple HW safety features. The integrated hardware security module provides safety and also helps to prevent external interrupts. Furthermore, AURIX™
has enhanced communication capabilities to support communication between CAN, LIN, FlexRay™ and ethernet buses.
Key Features
TriCore™ with DSP functionality
Best-in-Class real-time performance: triple TriCore™
with up to 300MHz per core
Supporting floating point and ﬁx point with all cores
From single core to multi-core
Encapsulation feature allows software development
without interference for multiple applications
HW accelerators
Up to 2.75MB of internal RAM, up to 8MB of flash
Innovative single supply 5V or 3.3V
External memory interface
IEC61508 conformance to support safety requirements
up to SIL3
Embedded EEPROM
Advanced communication peripherals:
CAN, LIN, SPI, FlexRay, ethernet
166
Key Benefits
High scalability gives the best cost-performance fit
High integration leads to signiﬁcant cost savings
High integration leads to reduced complexity
Innovative supply concept leads to Best-in-Class power
consumption
Microcontroller
AURIX™ Family Package Scalability
TQFP-80
TQFP-100
LQFP-144
TQFP-144
LQFP-176
9x Series
up to 8MB
Max. SRAM 2.75MB
Triple-Core
7x Series
up to 4MB
Max. SRAM 472KB
Triple-Core
6x Series
up to 2.5MB
Max. SRAM 752KB
Dual-Core
TC264
4x Series
up to 2MB
Max. SRAM 96KB
Single-Core
up to 2MB
Max. SRAM 708KB
Lockstep-Core
up to 1MB
Max. SRAM 96KB
Lockstep-Core
1x Series
up to 512KB
Max. SRAM 56KB
Lockstep-Core
BGA-416
LFBGA-516
TC297
TC298
TC299
TC275
TC277
TC265
TC267
TC244
3x Series
2x Series
LFBGA-292
TC233
TC234
TC222
TC223
TC224
TC212
TC213
TC214
TC237
Upgrade/Downgrade with pin-compatible packages
Advanced package technologies deliver the best price/performance ratio
Customers can choose between different devices in the same pin-compatible package
Microcontrollers
n
n
www.infineon.com/aurix
167
Current Sensors
Current Sensors
The Miniaturization Advantage
TLI4970 is a high-precision current sensor based on our proven Hall technology. Its coreless concept supports the
miniaturization trend defining today’s sensor designs. It is a fully digital solution with the added bonus of ease-of-use.
There is no need for any external calibration or other parts (such as A/D converters, Op-amps, reference voltage sources), reducing the overall implementation effort, PCB space and cost significantly.
TLI4970 provides superior accuracy compared with existing open- or closed-loop systems with magnetic cores. It has
additional functionality such as overcurrent detection and programmable filters, while offering a significantly smaller
footprint and lower power consumption. Key applications include AC/DC inverters, DC/DC converters and PFC Power
Supplies and drives.
Key Features
Key Benefits
AC & DC measurement range up to +/-50A
Ideal for Automation applications
Highly accurate over temperature range and lifetime
Plug and play solution – no external calibration needed
(max. 1.0% (0 h), 1.6% (over lifetime) of indicated value) Much smaller footprint than existing solutions
Low offset error (max. 75mA over temperature and lifetime) Reduced implementation effort, PCB space and cost
High magnetic stray field suppression
Small package size and weight for SMD mounting
Fast overcurrent detection with configurable threshold
Galvanic isolation up to 2.5kV max. rated isolation
voltage (UL1577)
16 bit digital SPI output (13 bit current value)
Small 7.0 x 7.0mm2 SMD package
Block Diagram TLI4970
IP+
Supply, Biasing,
Reset, Oscillator,
Bandgap
VDD
GND
EEPROM
Diff.
Hall
Galvanic
Separation
ADC
CS
T
S
MUX
ADC
DSP
Digital IF
SCLK
DOUT
DAC
IP-
www.infineon.com/tli4970
168
FOC
Fast Overcurrent Detection (open-drain)
Hall Switches
Hall-Effect Switches
The Energy-Saving Option with Excellent Accuracy and Robustness
Our portfolio of Hall switches comprises unipolar and omnipolar switches, bipolar latches and double Hall switches.
They are suited to a wide range of applications such as Position Sensing, Index Counting, BLDC motor control, etc.
These devices show excellent accuracy and robustness against electrical disturbances and are available in a variety
of packages.
Key Features
Operating supply voltage 3–32V
Reverse polarity protection (-18V)
Overvoltage capability up to 42V without
external resistor
Key Benefits
Reduction of system power consumption
Reduced system size
Removal of protection devices
Reliable system operation
Low current consumption (1.6mA)
Increased motor efficiency
Active error compensation
Broad range of switching thresholds available
High ESD performance, up to 7kV HBM
for all applications
Special industrial versions available
Small SMD package SOT23
Leaded package
Hall Switch Types
Uni-/omnipolar switches
Double Hall Speed/Direction Switches
N
S
N
S
N
Rotation
Direction
S
S
N
B
Main application:
BLDC motor commutation
B
Proximity detection
S
Speed
N
Direction
t
Branded Side of IC
Absolute position sensing in power operated systems
Sensors
Latch (bipolar)
www.infineon.com/hall-switches
169
Hall Sensors
Linear Hall Sensors
Highly Accurate Angular and Linear Position Measurement
All products of our linear Hall family measure the vertical component of a magnetic field. The output signal is directly
proportional to the sensed magnetic field. Building on these principles, our TLE499x family of linear Hall ICs has been
designed specifically to meet the requirements of highly accurate angular and linear position measurement. They are
also suited to current measurement applications.
Key Features
Key Benefits
Single supply voltage 4.5–5.5V
Wear-free operation
Temperature range -40 ... +150°C
Highly accurate contactless position sensing
Linear ratiometric output between -200mT and +200mT In-system calibration
Flexible system implementation
within three ranges
Sensitivity offset and clamping programmable
Digital temperature and stress compensation
High-voltage capability and reverse polarity protection
Low drift of output signal over temperature and lifetime
20-bit digital signal processing
Analog and digital interfaces
Block Diagram TLE4998
VDD
Interface
Bias
Supply
Spinning
Hall
EEPROM
OUT
A
D
Digital
Signal
Processing
Temperature
Sense
A
D
ROM
www.infineon.com/magnetic-sensors
170
OUT
Generation
GND
Product Solutions Interface
iGMR Angle Sensors
Compact Designs in Small Outline Packages
Our angle sensor family is based on integrated Giant Magneto Resistance (iGMR) technology. These sensors detect
the orientation of an applied magnetic field by measuring sine and cosine angle components with monolithically
integrated magneto-resistive elements. This allows them to easily determine the absolute orientation of the magnetic
field between 0° and 360°. Data processing and communication interfaces are integrated on the same silicon chip as
the sensing elements, allowing a compact design using small outline packages. Our angle sensor family offers a broad
variety of communication interfaces, as well as different levels of data processing and self-test capabilities. Ideal for
functional safety-critical applications, our TLE5309D combines a TLE5009 iGMR with a TLE5109 iAMR chip, whereas the
TLE5012BD combines two TLE5012B iGMR in one fully integrated dual-sensor package. Target applications of our iGMR
sensors include Contactless Angle Measurement, Rotational Position Measurement, Steering Angle Measurement and
BLDC motor commutation.
Features
Integrated GMR (iGMR) technology
0–360° angle measurement with sine and cosine bridge
Supply voltage 3.3 or 5.0V
On-chip temperature compensation of amplitude and offset
Temperature range -40°C ... +150°C
PG-DSO-8 package
Sales Name
Description
Interface
Order Code
TLE5009 E1000
VDD: 3.3V; static offset compensation
Analog
SP000912764
TLE5009 E1010
VDD: 3.3V; TCO1)
Analog
SP000912774
TLE5009 E2000
VDD: 5.0V; static offset compensation
Analog
SP000912760
TLE5009 E2010
VDD: 5.0V; TCO1)
Analog
SP000912770
TLE5012B E1000
VDD: 3.3V & 5.0V
SPI2), IIF3)
SP001166960
TLE5012B E3005
VDD: 3.3V & 5.0V
SPI2), HSM4)
SP001166964
TLE5012B E5000
VDD: 3.3V & 5.0V
SPI2), PWM5)
SP001166968
TLE5012B E9000
VDD: 3.3V & 5.0V
SPI2), SPC6)
SP001166998
TLE5012BD E1200
VDD: 3.3V & 5.0V DualDie
SPI2), IIF3)
SP001205296
TLE5012BD E9200
VDD: 3.3V & 5.0V DualDie
SPI2), SPC6)
SP001205300
TLE5309D E1211
VDD: 3.3V (AMR & GMR), TCO1), DualDie
Analog
SP001191262
TLE5309D E2211
VDD: 5.0V (AMR & GMR), TCO1), DualDie
Analog
SP001191266
TLE5309D E5201
VDD: 5.0V (AMR) & 3.3V (GMR), DualDie
Analog
SP001145340
TLE5009 EVALKIT
Evaluation kit containing interface box (PGSISI-2) and evaluation board incl. –
magnet and software
SP000871462
TLE5009 EVALBOARD
Evaluation board incl. magnet and software
(interface box is not included, but is required for operation)
–
SP000871466
TLE5012B EVALKIT
Evaluation kit containing interface box (PGSISI-2) and Evaluation board incl. –
magnet and software
SP000912902
TLE5012B EVALBOARD
Evaluation board incl. magnet and software
(interface box is not included, but is required for operation)
SP000912898
1) TCO = Temperature Compensation
2) SPI = Serial Peripheral Interface
3) IIF = Incremental Interface
4) HSM = Hall Switch Mode
–
Sensors
Product Portfolio
5) PWM = Pulse Width Modulation
6) SPC = Short PWM Code
171
iGMR Angle Sensors
Benefits TLE5009
Block Diagram TLE5009
The analog sensor output signals can be directly
connected to the analog inputs of a Microcontroller
The output signals are offset- and temperaturecompensated
Output signals can be read as single-ended or
differential voltage
Signal amplitudes are independent from supply
voltage variations
VDD
COS_P
DC-Offset &
Fuses
Amplifier
X-GMR
COS_N
PMU & Temperature Compensation
VGMR
SIN_P
Amplifier
Y-GMR
SIN_N
GND1
GND2
Benefits TLE5012B
Block Diagram TLE5012B
Different digital interfaces available
(SPI, PWM, HSM, IIF, SPC)
Integrated angle calculation based on sine and
cosine values
Increased accuracy with auto-calibration functionality
Prediction of output signal to compensate latency
High-speed angle update rate up to 23.4kHz
VDD
VRG
X
GMR
Y
GMR
VRA
SD-ADC
SD-ADC
VRD
OSC
TLE5012B
PLL
CSQ
Digital
Signal
Processing
CCU
CORDIC
Temp.
SD-ADC
CLK
FUSES
SSC
Interface
SCK
DATA
Incremental IF
PWM
HSM
SPC
IFA
IFB
GND
www.infineon.com/angle-sensors
172
Support
Expert Support for ...
... Microcontrollers, Sensors and Power ICs
www.infineon.com/xmc
www.infineon.com/dave
www.infineon.com/aurix
www.infineon.com/industrialtransceivers
www.infineon.com/tli4970
www.infineon.com/hall-switches
www.infineon.com/magnetic-sensors
www.infineon.com/angle-sensors
www.infineon.com/industrial-dcdc-converters
www.infineon.com/powersupply
www.infineon.com/profet
Datasheets
173
Package Overview
Packages
SMD Technology
TO-252-2 (DPAK)
2
9.9 x 6.5 x 2.3
DPAK (TO-252)
3
D2PAK 7pin (TO-263 7pin)
7
15.0 x 10.0 x 4.4
19
12.8 x 10.3 x 2.65
5.0 x 6.0 x 1.75
20
12.8 x 10.3 x 2.65
5.15 x 6.15 x 1.0
3.0 x 3.0 x 0.9
9.7 x 6.4 x 1.2
TSON-8 ThinPAK 5x6
8
5.0 x 5.0 x 1.0
5.15 x 6.15 x 1.0
10.0 x 6.0 x 1.75
3
3.0 x 2.8 x 1.1
3.0 x 3.0 x 0.9
28
18.1 x 10.3 x 2.65
5
9.9 x 6.5 x 2.3
14
8.75 x 6.0 x 1.75
3
2.9 x 2.4 x 1.0
8
3.3 x 3.3 x 1.0
SO-16/12
2.9 x 2.5 x 1.1
S3O8
SuperSO8 fused leads
8
5.15 x 6.15 x 1.0
DSO-28
48
15.0 x 10.0 x 4.4
16
10.0 x 6.0 x 1.75
3
4.5 x 4.0 x 1.5
8.0 x 8.0 x 1.0
15.0 x 10.0 x 4.4
18
12.8 x 10.3 x 2.65
SO-18
SOT-223
4
6.5 x 7.0 x 1.6
TISON (power stage 5x6)
WISON (power stage 3x3)
8
8
5.0 x 6.0 x 1.0
CanPAK™ S-Size
6
4.8 x 3.8 x 0.65
36
15.9 x 11.0 x 3.5
3.0 x 3.0 x 0.8
CanPAK™ M-Size
7
DSO-36
11.68 x 9.9 x 2.3
48
VQFN-48
UIQFN-32 DrBlade™ 1.0 WIQFN-38 DrBlade™ 2.0
6.0 x 6.0 x 0.9
32
5.0 x 5.0 x 0.6
2
SOT-89
TSSOP-48
12.5 x 6.1 x 1.1
D2PAK 2pin (TO-263-2)
SO-16
VSON (ThinPAK)
4
TO-Leadless (TOLL)
8
3
SOT-23
TSOP-6
6
D2PAK (TO-263)
SO-14
SC59
TDSON-10-7
10
TSSOP-28
28
2.0 x 2.1 x 0.9
SuperSO8 dual
8
TDSON-10-2
10
12
SOT-363
6
SuperSO8
8
9.7 x 6.6 x 2.34
SO-20
SOT-323
2.0 x 2.1 x 0.9
3
SO-8/SO-8 dual
8
SO-19
3
9.9 x 6.5 x 2.3
Reverse DPAK (Rev. TO-252) DPAK 5pin (TO-252 5pin)
38
6.6 x 4.5 x 0.8
IQFN-40
40
LxWxH
pin-Count
All Dimensions in mm
All products are available in green
(RoHS compliant).
174
6.0 x 6.0 x 0.8
UIQFN-19 DrBlade™ 3
19
Package (JEITA-code)
X
6.3 x 4.9 x 0.65
5.0 x 4.0 x 0.7
Package Overview
THD Technology
3
15.5 x 6.5 x 2.3
IPAK SL (TO-251 SL)
3
TO-220 FullPAK
3
29.6 x 10.5 x 4.7
8
9.52 x 8.9 x 4.37
10.7 x 6.5 x 2.3
I2PAK (TO-262)
3
TO-220-6-46
6
21.7 x 9.9 x 4.4
14
19.5 x 8.9 x 4.37
DIP-8
25.1 x 10 x 4.4
TO-220 real 2pin
2
29.15 x 10.0 x 4.4
3
40.15 x 15.9 x 5.0
TO-220-6-47
6
26.1 x 9.9 x 4.4
20
24.6 x 9.9 x 4.2
DIP-14
DIP-20
TO-220 2pin
2
TO-247
29.1 x 9.9 x 4.4
TO-220 3pin
3
29.15 x 10.0 x 4.4
7
9.52 x 8.9 x 4.37
TO-247 4pin
3
40.15 x 15.9 x 5.0
DIP-7
Package (JEITA-code)
X
LxWxH
pin-Count
All Dimensions in mm
All products are available in green
(RoHS compliant).
Packages
IPAK (TO-251)
175
Package Overview
Top and Bottom Side Cooling of SMD Devices
For LV MOSFETs different SMD packages such as SuperSO8, CanPAK™ and Blade are available. If the cooling system is
designed for main heatflow to the PCB both packages will show similar thermal performance.
If the main heat flow is to the top side the CanPAK™ is the better choice since the thermal resistance to the top side is
lower (Rth_top_CanPAK™ ~ 1 K/W, Rth_top_SuperSO8 ~ 20 K/W).
Bottom side cooling
Top side cooling
top
Heatsink
top
Package
PCB
PPCB > Pheatsink
bottom
Thermal performance
CanPAK™ ~ SuperSO8
Example: High performance Server
(PCB: 8 layer, 70µm)
PPCB < Pheatsink
bottom
Thermal performance
CanPAK™ > SuperSO8
Example: Motherboard (PCB 4 layer, 35µm) with
high performance heatsink
New IGBT Technology RCD Allows Highest Power Density
with Small SMD Packages
The new IGBT RCD technology in combination with an efficient cooling system
allows to use small SMD packages which enable to build compact systems with
increased power density. In order to improve the heat dissipation, thermal vias are
integrated in the PCB under the device case which results in a low thermal resistance
to the opposite side of the PCB. A heatsink complements the cooling system.
Isolation to the heatsink is realized with a thermal foil. With this cooling system
power dissipation up to 7 to 10W / IGBT is achievable which corresponds to ~ 2kW
application systems.
176
Package Overview
OptiMOS™ in TO-Leadless
A Package Optimized For High Current Applications
TO-Leadless has been designed for high currents up to 300A. In addition, latest
OptiMOS™ Silicon technology in combination with reduced package resistance
achieves lowest RDS(on). This enables a reduction in the number of parallel
MOSFETs in a Forklift application and increases power density.
Further the 60% smaller package size enables a very compact design.
Compared to D²PAK 7pin, TO-Leadless shows a substantial reduction in
footprint of 30%. The 50% reduced height offers a significant advantage in
applications where compact designs are key, such as Rack or Blade Servers.
Moreover low package parasitic inductances result in an improved EMI
behavior and a 50% bigger solder contact area avoids electro migration at
high current levels, which results in improved reliability.
Applications
Forklift
Point of Load (PoL)
Telecom
e-fuse
Features
Industry‘s lowest RDS(on)
Highest current capability up to 300A
Very low package parasitics and inductances
Less paralleling and cooling required
Highest system reliability
System cost reduction
Enabling very compact design
4.4mm
2.3mm
15.0mm
Footprint: 150mm2
9.9mm
11.7mm
Footprint: 115mm2
Packages
10.0mm
177
Package Overview
TO- 247 4pin Full Load Efficiency for Free
Benefits
Full load efficiency
Improved EMI
Better gate control
Increased creepage
Package for High voltage switches with increased creepage
and clearance
Infineon’s TO-247 4pin package enables significant efficiency improvement
in hard switched topologies and allows a better control at the same time.
The fourth pin acts as kelvin source. The main current of the switch is placed
outside of the gate loop and the feedback is eliminated. This leads especially
at high currents to less switching losses. Secondly, the EMI will be reduced
due to cleaner waveforms.
The benefit will be seen in various hard switching topologies used in AC/
DC and DC/AC conversion. The package helps as well in designs where the
next current or RDS(on) class with a three pin approach must be chosen in high
load operation. This is related to the improved efficiency by 5 to 8% at such
operation condition.
C
VDRV
Collector
G
RG
PWM
IG
C
E1
E2
Gate
Emitter
+
VLS
–
E1
E2
G
C
Package
Power Loop
Chip
Collector
G
G
C
E
Gate
Emitter
~13nh
TO-247
Control Loop
E
10000
Etot [µJ]
8000
6000
4000
2000
0
0
25
50
75
IC(sw) [A]
Comp. A
178
TO-247 3pin
TO-247 4pin
100
Package Overview
TO-247PLUS
Responding to the market requirement to accommodate ever increasing
amounts of silicon in smaller, space saving packages, Infineon introduces the
new package TO-247PLUS .
Higher Current Capability - Improved Thermal Behavior
Infineon’s new TO-247PLUS has the same outer dimensions as the industry
standard TO-247, but due to the absence of the screw hole, allows up to 120A
in 600V. Also the total backside active thermal pad area has been increased to
improve heat dissipation capabilities of the package.
Improved Thermal Management and Creepage Distances
Better heat dissipation through lower Rth improves thermal management,
which means less heat sink and lower cost for the cooling infrastructure. TO247PLUS package body has special “plastic trousers”, that allows to increase
the creepage distance to 4.25mm – 2mm bigger than the standard TO-247.
Special cut-outs of the mold compound at the upper corners, increase creepage
path at single clip mounting. Moreover, the TO-247PLUS plastic body has
tighter tolerances to clip pressure comparing to the major competitors on the
market, thus contributing for better reliability of the device use in application.
A new bond wiring concept realized in TO-247PLUS package allows increase
of the DC collector current from 80A to 160A (at Tc = 25°C) contributing to the
better reliability and longer lifetime of the IGBT. TO-247PLUS 100A/120A is
qualified according to industrial/automotive standards.
Applications
UPS
Solar
Welding
Drives
AirCon/ HVAC
Automotive
Features
Highest current rating co-pack 600V in 100A and 120A
35% bigger active thermal pad area for up to 20% lower thermal resistance Rth(jh)
Extended creepage distance of 4.25mm – 2mm bigger than TO-247
Benefits
Higher system power density – IC increase keeping the same system
thermal performance
Lower thermal resistance Rth(jh) and improved by ~15% heat dissipation
capability of TO-247PLUS vs TO-247
Higher reliability, extended lifetime of the device
TO-247
Major Differences
TO-247PLUS
Screw hole vs. no screw hole
Maximum allowable chip area in single die ~70mm² vs 120mm²
Current capability (DuoPAK) 600V: 75A vs 120A (+60%)
Increased creepage by 52% to 4.25mm
Bond wire limit increased from 80A to 160A
Bigger backside active thermal pad area due to missing hole
140mm² vs 190mm²
Packages
20% lower thermal resistance Rth(jh)
10%-15% better heat dissipation
179
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Published by
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© 2015 Infineon Technologies AG.
All Rights Reserved.
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Order Number: B111-I0079-V1-7600-EU-EC-P
Date: 02 / 2015
Attention please!
The information given in this document shall in no event
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(“Beschaffenheitsgarantie”). With respect to any examples
or hints given herein, any typical values stated herein and/
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Infineon Technologies hereby disclaims any and all warranties and liabilities of any kind, including without limitation
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